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Raymond Stonitsch Phones & Addresses

  • Simpsonville, SC
  • West Union, SC
  • Liberty Twp, OH
  • 7 Owasco Ct, Niskayuna, NY 12309 (518) 393-2804
  • Schenectady, NY
  • 1161 Iverleigh Trl, Charlotte, NC 28270 (704) 814-9176
  • 6810 Shannopin Dr, Charlotte, NC 28270
  • Greenville, SC

Publications

Us Patents

Forging Die And Process

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US Patent:
7805971, Oct 5, 2010
Filed:
Sep 17, 2007
Appl. No.:
11/856111
Inventors:
Ronald Ralph Cairo - Greer SC, US
Joseph Jay Jackson - Greer SC, US
George Albert Goller - Greenville SC, US
Raymond Joseph Stonitsch - Simpsonville SC, US
Assignee:
General Electric Company - Schenectady NY
International Classification:
B21J 5/00
US Classification:
723542, 723536
Abstract:
A forging die and process suitable for producing large forgings, including turbine disks and other rotating components of power-generating gas turbine engines, using billets formed by powder metallurgy. The forging die includes a backplate, and segments arranged in a radial pattern about a region on a surface of the backplate. Each segment has a backside facing the backplate and an interface surface facing away from the backplate, with the interface surface being adapted to engage the billet during forging. The segments are physically coupled to the surface of the backplate in a manner that enables radial movement of the segments relative to the backplate.

Near Net Shape Forging Process For Compressor And Turbine Wheels And Turbine Spacer Wheels

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US Patent:
7895874, Mar 1, 2011
Filed:
Jan 3, 2008
Appl. No.:
11/968684
Inventors:
Manu Mathai - Chennai, IN
Raymond Stonitsch - Simpsonville SC, US
Guven Yucesan - Greenville SC, US
Assignee:
General Electric Company - Schenectady NY
International Classification:
B21D 22/00
B21K 25/00
B23P 15/04
US Classification:
72357, 723532, 72403, 298892
Abstract:
A method of forging a workpiece includes (a) incrementally advancing the workpiece in a closed die forge, the closed die forge including a stationary, flat die and a first split die including a plurality of first die segments, each die segment being incrementally advanced in sequence to contact the incrementally advancing workpiece; (b) replacing the stationary, flat die with a second split die including a plurality of second die segments; and (c) forging the workpiece forged in (a) between the first split die and the second split die, wherein the first die segments are stationary and at least some of the plurality of second die segments are incrementally advanced in sequence.

Near Net Shape Forging Process For Compressor And Turbine Wheels And Turbine Spacer Wheels

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US Patent:
8256260, Sep 4, 2012
Filed:
Jan 31, 2011
Appl. No.:
13/017181
Inventors:
Manu Mathai - Chennai, IN
Raymond Stonitsch - Simpsonville SC, US
Guven Yucesan - Greenville SC, US
Assignee:
General Electric Company - Schenectady NY
International Classification:
B21D 22/00
B21K 25/00
B23P 15/04
US Classification:
72357, 723532, 72403, 298892
Abstract:
A forging method including extruding a billet to form a ring shaped hollow workpiece; reducing a cross section of the workpiece; and forging the workpiece in a closed die having a first split die including a plurality of first die segments and a second split die including a plurality of second die segments by sequentially advancing pairs of opposing die segments from the first split die and second split die towards each other.

Device And Method For Hot Isostatic Pressing Container

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US Patent:
8303289, Nov 6, 2012
Filed:
Aug 24, 2009
Appl. No.:
12/546168
Inventors:
George Albert Goller - Greenville SC, US
Raymond Joseph Stonitsch - Simpsonville SC, US
Jason Robert Parolini - Greer SC, US
Daniel Y. Wei - Reading MA, US
Assignee:
General Electric Company - Schenectady NY
International Classification:
B29C 43/02
B28B 3/00
US Classification:
425 77, 4254052
Abstract:
An improved method and container for forming billets using hot isostatic pressing is provided. The improved method and container have features that control the deformations of the container during the high temperatures and pressures experienced in such processing so as to provide a billet having a predetermined shape such as, for example, substantially parallel, convex, and/or concave sides. Conservations of the powder used for the billet and more efficient use of the container upon the resulting billet can be achieved.

Methods For Forming An Oxide-Dispersion Strengthened Coating

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US Patent:
8313810, Nov 20, 2012
Filed:
Apr 7, 2011
Appl. No.:
13/081906
Inventors:
David Andrew Helmick - Wyomissing PA, US
George Albert Goller - Greenville SC, US
Raymond Joseph Stonitsch - Simpsonville SC, US
Assignee:
General Electric Company - Schenectady NY
International Classification:
B05D 1/08
B05D 1/12
US Classification:
427455, 427456, 427190, 427191
Abstract:
A method for forming an oxide-dispersion strengthened coating on a metal substrate is disclosed. The method generally includes comminuting MCrAlY alloy particles to form an oxygen-enriched powder, wherein at least about 25% by volume of the MCrAlY alloy particles within the oxygen-enriched powder have a particle size of less than about 5 μm. Additionally, the method includes applying the oxygen-enriched powder to the metal substrate to form a coating and heating the oxygen-enriched powder to precipitate oxide dispersoids within the coating.

Methods For Processing Nanostructured Ferritic Alloys, And Articles Produced Thereby

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US Patent:
8357328, Jan 22, 2013
Filed:
Dec 14, 2009
Appl. No.:
12/636976
Inventors:
Richard Didomizio - Scotia NY, US
Matthew Joseph Alinger - Albany NY, US
Raymond Joseph Stonitsch - Simpsonville SC, US
Samuel Vinod Thamboo - Latham NY, US
Assignee:
General Electric Company - Niskayuna NY
International Classification:
C22C 32/00
US Classification:
419 19, 420 34, 420 70, 420104, 148325, 148333
Abstract:
A formed article comprising a nanostructured ferritic alloy is provided. Advantageously, the article is not formed via extrusion, and thus, cost savings are provided. Methods are also provided for forming the article, and the articles so produced, exhibit sufficient continuous cycle fatigue crack growth resistance and hold time fatigue crack growth resistance to be utilized as turbomachinery components, and in particular, large, hot section components of a gas or steam turbine engines. In other embodiments, a turbomachinery component comprising an NFA is provided, and in some such embodiments, the turbomachinery component may be extruded.

Device And Method For Hot Isostatic Pressing Container Having Adjustable Volume And Corner

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US Patent:
8376726, Feb 19, 2013
Filed:
Aug 20, 2009
Appl. No.:
12/544449
Inventors:
George Albert Goller - Greenville SC, US
Raymond Joseph Stonitsch - Simpsonville SC, US
Jason Robert Parolini - Greer SC, US
Assignee:
General Electric Company - Schenectady NY
International Classification:
B29C 43/02
B28B 3/00
US Classification:
425 77, 4254052
Abstract:
An improved container and method for forming billets using hot isostatic pressing is provided. The method and container allows for adjusting the volume of the container so as to obtain a billet of the desired shape based on selected powder charge for the container. In addition, the corner of the container can be adjusted to allow for elimination of edge effects and further shape control in the resulting billet.

Alloy

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US Patent:
8512485, Aug 20, 2013
Filed:
Jan 3, 2011
Appl. No.:
12/983413
Inventors:
Ganjiang Feng - Greenville SC, US
George A. Goller - Greenville SC, US
Raymond Joseph Stonitsch - Simpsonville SC, US
Jason R. Parolini - Greenville SC, US
Shan Liu - Greenville SC, US
Assignee:
General Electric Company - Schenectady NY
International Classification:
C22C 30/00
US Classification:
148419, 148427, 148442, 4205841, 4205861
Abstract:
A alloy and a process of forming a alloy are disclosed. The alloy has a predetermined grain boundary morphology. The alloy includes by weight greater than about 0. 06 percent carbon, up to about 0. 0015 percent sulfur, less than about 16 percent chromium, between about 39 percent and about 44 percent nickel, between about 2. 5 percent and about 3. 3 percent niobium, between about 1. 4 percent and about 2 percent titanium, up to about 0. 5 percent aluminum, up to about 0. 006 percent boron, up to about 0. 3 percent copper, up to about 0. 006 percent nitrogen, and greater than about 0. 5 percent molybdenum.
Raymond J Stonitsch from Simpsonville, SC, age ~72 Get Report