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Huseyin Erdim Phones & Addresses

  • 12307 NE 68Th Pl, Kirkland, WA 98033
  • s
  • 1412 NW 60Th St #B, Seattle, WA 98107 (860) 970-3602
  • Somerville, MA
  • Storrs Mansfield, CT
  • Willimantic, CT
  • Coventry, CT
  • 424 N 85Th St APT 311, Seattle, WA 98103

Work

Company: Mitsubishi electric research labs Jul 2009 Address: Cambridge, MA Position: Member research staff

Education

School / High School: The University of Connecticut 2005 to 2009

Skills

Simulations • Optimization • Matlab • Numerical Analysis • R&D • Algorithms • Cad/Cam • Machining • Computational Geometry • Programming • C++ • Mathematical Modeling • Robotics • Python • Solid Modeling • Software Development • Simulink • Composites • Engineering • Composite Manufacturing • Systems Engineering • Additive Manufacturing • Teamwork • Product Development • Leadership • Cross Functional Team Leadership • Analytical Skills

Languages

English • Japanese • Turkish

Industries

Aviation & Aerospace

Resumes

Resumes

Huseyin Erdim Photo 1

Senior Systems Engineer

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Location:
22118 41St Pl south, Kent, WA 98032
Industry:
Aviation & Aerospace
Work:
Mitsubishi Electric Research Labs - Cambridge, MA since Jul 2009
Member Research Staff

University of Connecticut - Storrs, CT Aug 2005 - Jun 2009
Research Assistant

SolidWorks-CADCAMCIM Inc. - Waltham, MA Dec 2008 - Jan 2009
Software Engineer Intern

SolidWorks-CADCAMCIM Inc. - Waltham, MA May 2008 - Aug 2008
Software Engineer Intern

Delft University of Technology - Delft Area, Netherlands May 2007 - Aug 2007
Visiting Researcher
Education:
The University of Connecticut 2005 - 2009
KoƧ University 2003 - 2005
Middle East Technical University 2000 - 2003
Skills:
Simulations
Optimization
Matlab
Numerical Analysis
R&D
Algorithms
Cad/Cam
Machining
Computational Geometry
Programming
C++
Mathematical Modeling
Robotics
Python
Solid Modeling
Software Development
Simulink
Composites
Engineering
Composite Manufacturing
Systems Engineering
Additive Manufacturing
Teamwork
Product Development
Leadership
Cross Functional Team Leadership
Analytical Skills
Languages:
English
Japanese
Turkish

Publications

Us Patents

Analyzing Volume Removed During Machining Simulation

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US Patent:
20130262065, Oct 3, 2013
Filed:
Mar 28, 2012
Appl. No.:
13/432871
Inventors:
Huseyin Erdim - Somerville MA, US
Alan Sullivan - Middleton MA, US
International Classification:
G06G 7/48
US Classification:
703 7
Abstract:
A method simulates a machining of a workpiece by a tool. The method populates a swept volume representing a motion of the tool in relation to the workpiece with a set of rays, and determines a volume removed from the workpiece by the swept volume based on intersections of at least some rays with the workpiece. A model of the workpiece is modified based on the removed volume.

System And Method For Analyzing Engagement Surfaces Between Tools And Workpieces During Machining Simulation

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US Patent:
20130262066, Oct 3, 2013
Filed:
Mar 29, 2012
Appl. No.:
13/434407
Inventors:
Huseyin Erdim - Somerville MA, US
Alan Sullivan - Middleton MA, US
International Classification:
G06G 7/48
US Classification:
703 7
Abstract:
A method determines an engagement surface between a tool and a workpiece during a simulation of a machining of the workpiece by a relative motion between the object and the tool. A set of points is arranged on at least a part of a surface of the tool. A distance between each point in the set of points and a surface of the workpiece modified by the motion is determined and the engagement surface is formed based on a subset of points having the distance below a threshold.

Interactive Graphical User Interface (Gui) For Designing Preform Geometries

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US Patent:
20170352195, Dec 7, 2017
Filed:
Jun 6, 2016
Appl. No.:
15/174770
Inventors:
- Chicago IL, US
Huseyin Erdim - Seattle WA, US
Mitchell T. Lee - Seattle WA, US
Stefanie A. Meier - Seattle WA, US
International Classification:
G06T 19/20
G06F 3/0481
G06T 15/08
Abstract:
An example method is described that includes providing, for display, a three-dimensional (3D) model of a part. The method also includes receiving, via a graphical user interface, data defining a cutting plane. The cutting plane intersects the 3D model of the part and divides the 3D model into a first portion and a second portion. The method further includes determining a first set of minimum-volume bounding boxes that is tangent to the cutting plane and encloses the first portion of the 3D model, and determining a second set of minimum-volume bounding boxes that is tangent to the cutting plane and encloses the second portion of the 3D model. The method also includes providing a preform geometry for the part. The preform geometry includes the first set of minimum-volume bounding boxes and the second set of minimum-volume bounding boxes.

Preform Fabrication System

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US Patent:
20170220030, Aug 3, 2017
Filed:
Feb 2, 2016
Appl. No.:
15/013161
Inventors:
- Chicago IL, US
Huseyin Erdim - Seattle WA, US
Mitchell Tyler Lee - Kirkland WA, US
International Classification:
G05B 19/4099
Abstract:
An embodiment of the present disclosure provides a method and apparatus for managing a part. The method comprises identifying, by a computer system, parameters for the part. Further, the method comprises identifying, by the computer system, a number of additional parameters used in manufacturing the part from a preform. Yet further, the method comprises automatically generating, by the computer system, a preform design for the preform using the parameters for the part and the number of additional parameters, wherein the preform design enables manufacturing the preform using an additive manufacturing system in a manufacturing environment.

Oscillator-Based Path Planning For Machining Of A Pocket Shape In Workpiece

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US Patent:
20150277436, Oct 1, 2015
Filed:
Mar 26, 2014
Appl. No.:
14/225801
Inventors:
- Cambridge MA, US
Huseyin Erdim - Seattle WA, US
Assignee:
Mitsubishi Electric Research Laboratories, Inc. - Cambridge MA
International Classification:
G05B 19/4099
Abstract:
A method determines a path of a tool machining a pocket shape in a workpiece. The pocket shape is defined by a closed curve in an x-y plane. The method determines positions and velocities of a motion of an oscillator having an energy defined by a function that is positive within a boundary of the pocket shape and equals zero on the boundary of the pocket shape. The method determines coordinates of the path of the tool based on corresponding pairs of position and velocity values of the motion, wherein a position value of each pair represents an x coordinate of the path of the tool in the x-y plane, and a velocity value of each pair represents a y coordinate of the path of the tool in the x-y plane.
Huseyin C Erdim from Kirkland, WA, age ~43 Get Report