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Joseph A Megy

from Lakeland, FL
Age ~79
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Also known as:
Joseph Allen Megy, Joseph Living Megy, Joseph J Megy, Joe A Megy, Joe D Megy
Phone and address:
6797 Eagle Ridge Blvd, Lakeland, FL 33813
(863) 603-3555
Related to:
Devin J Megy, 58Jeffrey MegyDonna J Megy, 56Emeral Megy, 31Gerald F SivyKristin E Megy, 80Jeff MegyMartha H SivyCathy L Egnor, 52Jill A Sivy, 48Tamsin K Ching, 49Sean Christopher Megy, 77Donna L Sivy, 78
Connected to:
Jeffry A Megyesi, 60Joseph Megyesi, 79Meh A Meh, 36Ree Meh, 33Say Meh, 35Ahmed A Mehadi, 66Angela M Mehaffey, 53Angela Mehaffey, 43Brandi C Mehaffey, 47

Joseph Megy Phones & Addresses

  • 6797 Eagle Ridge Blvd, Lakeland, FL 33813 (863) 603-3555
  • 137 Casa Sueno Ct, Richland, WA 99352 (509) 628-9223
  • 167 Casa Sueno Ct, Richland, WA 99352
  • 347 Birch St, Imperial, PA 15126 (724) 695-9927
  • Plum, PA
  • New Kensington, PA
  • New Cumberland, WV
  • Bartow, FL
  • Rathdrum, ID

Education

Degree: Graduate or professional degree

Resumes

Resumes

Joseph Megy Photo 1

Owner

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Location:
Lakeland, FL
Industry:
Research
Work:
Jdc of Oregon
Owner
Education:
Oregon State University 1964 - 1975
Skills:
Start Ups
Business Strategy
Product Development
Entrepreneurship
New Business Development
Strategic Planning
Management Consulting
Joseph Megy Photo 2

Chairman

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Location:
Pasco, WA
Industry:
Research
Work:
Jdcphosphate, Inc
Chairman
Joseph Megy Photo 3

Cto At Jdcphosphate

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Position:
cto at jdcphosphate
Location:
Richland/Kennewick/Pasco, Washington Area
Industry:
Research
Work:
jdcphosphate
cto
jamegy Inc Jan 1988 - Mar 2002
president
Education:
Oregon State University 1963 - 1975
PhD, Chemistry-Chem Engineering

Business Records

Name / Title
Company / Classification
Phones & Addresses
Joseph A. Megy
President
Jdc of Oregon, Inc
6797 Eagle Rdg Blvd, Lakeland, FL 33813
PO Box 1398, Bartow, FL 33831
3200 County Rd 630 W, Bartow, FL 33841
Joseph A. Megy
Chairman, Cto, Treasurer
JDCPhosphate, Inc
Chemicals
3200 Crk 630 W, Orlando, FL 33841
2711 Centerville Rd, Wilmington, DE 19808
PO Box 1398, Bartow, FL 33831
Joseph Megy
Secretary
TITAN HOLDINGS, INC
Devin Megy, Portland, OR 97207
137 Casa Sueno Ct, Richland, WA 99352
Joseph A. Megy
Mbr, Director
Jdcdevelopment, LLC
Nonclassifiable Establishments · Whol Chemicals/Products · Wholesales Chemicals/Products
3200 State Rd 630 W, Bartow, FL 33841
3200 County Rd 630 W, Bartow, FL 33841
PO Box 1398, Bartow, FL 33831
3200 Copunty Rd, Bartow, FL 33841

Publications

Us Patents

Phosphorous Pentoxide Producing Methods

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US Patent:
7378070, May 27, 2008
Filed:
Jun 13, 2007
Appl. No.:
11/818115
Inventors:
Joseph A. Megy - Richland WA, US
International Classification:
C01B 25/12
US Classification:
423304, 4231572, 423317
Abstract:
A phosphorous pentoxide producing method includes forming a kiln bed using feed agglomerates with a calcium-to-silica mole ratio of less than 1. 0 and maintaining a bed temperature at or above 1180 C. along at least 50% of the bed length without exceeding 1380 C. along the entire bed length. Less than 10% of the agglomerates' phosphate input to the kiln remains in the kiln residue as phosphate. Another method includes maintaining a bed temperature at or above 1180 C. along a portion of the bed length and establishing a bed surface-to-volume ratio multiplied by a time for bed heat up to 1180 C. of less than 50 minutes-ft/ft.

Phosphorous Pentoxide Producing Methods

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US Patent:
7910080, Mar 22, 2011
Filed:
Aug 5, 2008
Appl. No.:
12/186413
Inventors:
Joseph A. Megy - Richland WA, US
Assignee:
JDCPhosphate, Inc. - Bartow FL
International Classification:
C01B 25/12
US Classification:
423304, 4231572, 423317
Abstract:
A phosphorous pentoxide producing method includes forming a kiln bed using feed agglomerates with a calcium-to-silica mole ratio of from 0. 5 to 1. 0 and maintaining a bed temperature at or above 1260 C. along a portion of the bed length without exceeding 1380 C. along the entire bed length. Less than 10% of the agglomerates' phosphate input to the kiln remains in the kiln residue as phosphate. Another method includes maintaining a bed temperature at or above 1180 C. along a portion of the bed length and establishing a bed surface-to-volume ratio multiplied by a time for bed heat up to 1180 C. of less than 50 minutes-ft/ft.

Methods For Recovering Refractory Metal From Wheel Grinding

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US Patent:
20080066576, Mar 20, 2008
Filed:
Sep 17, 2007
Appl. No.:
11/856546
Inventors:
Joseph A. Megy - Richland WA, US
International Classification:
C22B 7/00
US Classification:
75743, 451 36
Abstract:
A refractory metal recovery method includes applying a coolant to a wheel grinding operation at a total rate exceeding a total rate at which the coolant evaporates and distributing the coolant across an interface with the abrasive wheel sufficient to apply the coolant at local rates exceeding local rates at which the coolant evaporates. The method produces refractory metal swarf and decreases oxidation of the swarf compared to dry grinding, allowing collection of the swarf. The abrasive grit may have a size of from about 16 to about 24 mesh and the coolant may contain a nitrite.

Phosphorous Pentoxide Producing Methods

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US Patent:
20080219909, Sep 11, 2008
Filed:
May 22, 2008
Appl. No.:
12/125751
Inventors:
Joseph A. Megy - Richland WA, US
International Classification:
C01B 25/12
US Classification:
423304
Abstract:
A phosphorous pentoxide producing method includes forming a kiln bed using feed agglomerates with a calcium-to-silica mole ratio of less than 1.0 and maintaining a bed temperature at or above 1180 C. along at least 50% of the bed length without exceeding 1380 C. along the entire bed length. Less than 10% of the agglomerates' phosphate input to the kiln remains in the kiln residue as phosphate. Another method includes maintaining a bed temperature at or above 1180 C. along a portion of the bed length and establishing a bed surface-to-volume ratio multiplied by a time for bed heat up to 1180 C. of less than 50 minutes-ft/ft.

Phosphorous Pentoxide Producing Methods And Phosphate Ore Feed Agglomerates

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US Patent:
20130136682, May 30, 2013
Filed:
Nov 29, 2011
Appl. No.:
13/306890
Inventors:
Joseph A. Megy - Richland WA, US
International Classification:
C01B 25/12
B05D 7/00
US Classification:
423304, 427220
Abstract:
A phosphorous pentoxide producing method includes forming a reducing kiln bed using feed agglomerates containing a lignin sulfonate both inside the agglomerates and coating a surface of individual agglomerates. Freeboard particulates are generated from the agglomerates, an amount of particulates generated being less than would occur in the method with no lignin sulfonate. Kiln off gas is generated and phosphorous pentoxide is collected from the kiln off gas. The kiln discharges a residue containing processed agglomerates, less than 20% of the agglomerates' phosphate input to the kiln remaining in the residue. The percentage of input phosphate that remains in the residue is less than would occur in the method with no lignin sulfonate. The method may include forming green agglomerates. Controlling a drying rate of the green agglomerates may wick some of the lignin sulfonate onto the surface of individual drying agglomerates without adhering the agglomerates together.

Molten Aluminum Treatment

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US Patent:
62176323, Apr 17, 2001
Filed:
Jun 28, 1999
Appl. No.:
9/340529
Inventors:
Joseph A. Megy - Imperial PA
International Classification:
C22C 102
US Classification:
75680
Abstract:
A method of grain refining aluminum, the method comprising providing a molten aluminum body containing at least one of the metals selected from the group consisting of titanium, zirconium, vanadium, molybdenum, manganese, silicon, tungsten, tantalum, niobium and beryllium. A material reactive with the titanium is introduced preferably in gaseous form to the aluminum body. The material has a component selected from the group consisting of boron, carbon, sulfur, nitrogen and phosphorus. The material and said metal form a grain refining compound adapted for grain refining the aluminum.

Refractory Metal Sponge Fines Composition

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US Patent:
57762252, Jul 7, 1998
Filed:
Nov 21, 1996
Appl. No.:
8/753157
Inventors:
Joseph A. Megy - New Cumberland WV
International Classification:
C22C 2900
US Classification:
75304
Abstract:
A clean refractory metal sponge fines product is made from refractory metal sponge fines free of refractory metal oxides, carbides, nitrides and binary iron alloys; silicon carbide, oils, greases and organic compounds; salt; dust; dirt; pieces of iron, iron alloy and tungsten carbide; and light contaminants. The sponge fines are vigorously washed and rinsed with a displacement wash to remove the bulk of the wash fluid and subject to a counter-current wash to yield clean refractory metal sponge fines. The clean sponge fines can be pressed into briquettes and sintered at elevated pressures, or mixed with an alkali metal refractory metal halide slat, pressed at elevated pressures into sponge fines/salt briquettes and dried or pressed into briquettes, dried and packaged, or pressed into briquettes and stored wet. The briquettes are non-pyrophoric.

Refractory Metal Swarf Composition And Method Of Making Same

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US Patent:
55974015, Jan 28, 1997
Filed:
Nov 15, 1994
Appl. No.:
8/338594
Inventors:
Joseph A. Megy - New Cumberland WV
International Classification:
C22C 2900
US Classification:
75304
Abstract:
A clean refractory metal SWARF particle product is made from refractory metal SWARF. The SWARF particles are produced with coolant at a temperature less than 650. degree. C. to prevent formation of refractory metal oxides and nitrides. The SWARF particles are comminuted to reduce the particle size of the SWARF slivers and to liberate residual coolant The comminuted SWARF slivers are washed with a displacement wash to remove the bulk of the coolant and subject to a counter current wash to remove substantially all of the coolant components to produce to clean SWARF particles. The clean SWARF particles can be pressed into briquettes and sintered at elevated pressures or mixed with an alkali metal refractory metal halide salt, pressed at elevated pressures into SWARF/soft briquettes and dried. The briquettes are non-pyrophoric.
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Joseph A Megy from Lakeland, FL, age ~79 Get Report