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$28 USD / hora
Bandera de ARGENTINA
don torcuato, argentina
$28 USD / hora
Aquí son las 1:24 p. m.
Se unió el noviembre 17, 2016
0 Recomendaciones

Diego L.

@delcti

 5,0 (9 comentarios)
5,7
5,7
100%
100%
$28 USD / hora
Bandera de ARGENTINA
don torcuato, argentina
$28 USD / hora
100 %
Trabajos finalizados
100 %
Dentro del presupuesto
100 %
A tiempo
13 %
Tasa de recontratación

Expert in Finite Element Analysis (FEA)

If you are looking for exact results in simulations, or find the solution to a problem of engineering or simply make a CAD design, then you are in the correct profile. I perform simulations using the Finite Element Method in COMSOL Multiphysic, Ansys, Maxwell, Amperes and MagNet. Common areas of FEA: Finite Element Method Magnetics (FEMM) Computational fluid dynamics (CFD) Structural-Mechanics Engineering Analysis Electronic Engineering Analysis. Medical FEA (extraction of 3D model from DICOM data) I also have services oriented to the design of robotics products and process automation. Programming Microcontrollers    IDEs: MPLAB - MPLAB-X, IAR, mikroC, CCS    Programming languages: Visual Basic, Assembler, C    Technologies: Microchip, ARM Electronics    General Electronics    Power Electronics    Digital Electronics Design, Simulation Altium Designer (Altium) Proteus (Labcenter Electronics) SpaceClaim (ANSYS) AutoCAD (AutoDesk)
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Portafolio

4750510
Analysis of Proton Exchange Membrane Fuel Cell (PEMFC), optimization of current density by parametric geometry
Proton-Exchange Membrane Fuel Cell (PEMFC) in COMSOL
Analysis of Proton Exchange Membrane Fuel Cell (PEMFC), optimization of current density by parametric geometry
Proton-Exchange Membrane Fuel Cell (PEMFC) in COMSOL
Analysis of Proton Exchange Membrane Fuel Cell (PEMFC), optimization of current density by parametric geometry
Proton-Exchange Membrane Fuel Cell (PEMFC) in COMSOL
Analysis of Proton Exchange Membrane Fuel Cell (PEMFC), optimization of current density by parametric geometry
Proton-Exchange Membrane Fuel Cell (PEMFC) in COMSOL
Analysis of Proton Exchange Membrane Fuel Cell (PEMFC), optimization of current density by parametric geometry
Proton-Exchange Membrane Fuel Cell (PEMFC) in COMSOL
Analysis of Proton Exchange Membrane Fuel Cell (PEMFC), optimization of current density by parametric geometry
Proton-Exchange Membrane Fuel Cell (PEMFC) in COMSOL
4750580
An electromagnetic and mechanical multi-phisycs model was made to study the deformation of a coil coated in epoxy resin before a high power pulse. The elastic deformation effects are caused by the force of Lorentz between each wire loop.
Analysis of high power coil in COMSOL
An electromagnetic and mechanical multi-phisycs model was made to study the deformation of a coil coated in epoxy resin before a high power pulse. The elastic deformation effects are caused by the force of Lorentz between each wire loop.
Analysis of high power coil in COMSOL
An electromagnetic and mechanical multi-phisycs model was made to study the deformation of a coil coated in epoxy resin before a high power pulse. The elastic deformation effects are caused by the force of Lorentz between each wire loop.
Analysis of high power coil in COMSOL
An electromagnetic and mechanical multi-phisycs model was made to study the deformation of a coil coated in epoxy resin before a high power pulse. The elastic deformation effects are caused by the force of Lorentz between each wire loop.
Analysis of high power coil in COMSOL
An electromagnetic and mechanical multi-phisycs model was made to study the deformation of a coil coated in epoxy resin before a high power pulse. The elastic deformation effects are caused by the force of Lorentz between each wire loop.
Analysis of high power coil in COMSOL
An electromagnetic and mechanical multi-phisycs model was made to study the deformation of a coil coated in epoxy resin before a high power pulse. The elastic deformation effects are caused by the force of Lorentz between each wire loop.
Analysis of high power coil in COMSOL
An electromagnetic and mechanical multi-phisycs model was made to study the deformation of a coil coated in epoxy resin before a high power pulse. The elastic deformation effects are caused by the force of Lorentz between each wire loop.
Analysis of high power coil in COMSOL
4750563
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
4750521
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
4750499
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
4154374
Creation and modeling in Space Claim of a residual heat recuperator for photovoltaic panels. In addition to the design, documentation is provided that justifies the model, as well as the manufacturing method, material costs and reaction studies of the components with the refrigerant fluid. The design complies with the ASME API standard
3D design and model justification Residual Heat Recuperator
Creation and modeling in Space Claim of a residual heat recuperator for photovoltaic panels. In addition to the design, documentation is provided that justifies the model, as well as the manufacturing method, material costs and reaction studies of the components with the refrigerant fluid. The design complies with the ASME API standard
3D design and model justification Residual Heat Recuperator
Creation and modeling in Space Claim of a residual heat recuperator for photovoltaic panels. In addition to the design, documentation is provided that justifies the model, as well as the manufacturing method, material costs and reaction studies of the components with the refrigerant fluid. The design complies with the ASME API standard
3D design and model justification Residual Heat Recuperator
Creation and modeling in Space Claim of a residual heat recuperator for photovoltaic panels. In addition to the design, documentation is provided that justifies the model, as well as the manufacturing method, material costs and reaction studies of the components with the refrigerant fluid. The design complies with the ASME API standard
3D design and model justification Residual Heat Recuperator
Creation and modeling in Space Claim of a residual heat recuperator for photovoltaic panels. In addition to the design, documentation is provided that justifies the model, as well as the manufacturing method, material costs and reaction studies of the components with the refrigerant fluid. The design complies with the ASME API standard
3D design and model justification Residual Heat Recuperator
Creation and modeling in Space Claim of a residual heat recuperator for photovoltaic panels. In addition to the design, documentation is provided that justifies the model, as well as the manufacturing method, material costs and reaction studies of the components with the refrigerant fluid. The design complies with the ASME API standard
3D design and model justification Residual Heat Recuperator
Creation and modeling in Space Claim of a residual heat recuperator for photovoltaic panels. In addition to the design, documentation is provided that justifies the model, as well as the manufacturing method, material costs and reaction studies of the components with the refrigerant fluid. The design complies with the ASME API standard
3D design and model justification Residual Heat Recuperator
4750510
Analysis of Proton Exchange Membrane Fuel Cell (PEMFC), optimization of current density by parametric geometry
Proton-Exchange Membrane Fuel Cell (PEMFC) in COMSOL
Analysis of Proton Exchange Membrane Fuel Cell (PEMFC), optimization of current density by parametric geometry
Proton-Exchange Membrane Fuel Cell (PEMFC) in COMSOL
Analysis of Proton Exchange Membrane Fuel Cell (PEMFC), optimization of current density by parametric geometry
Proton-Exchange Membrane Fuel Cell (PEMFC) in COMSOL
Analysis of Proton Exchange Membrane Fuel Cell (PEMFC), optimization of current density by parametric geometry
Proton-Exchange Membrane Fuel Cell (PEMFC) in COMSOL
Analysis of Proton Exchange Membrane Fuel Cell (PEMFC), optimization of current density by parametric geometry
Proton-Exchange Membrane Fuel Cell (PEMFC) in COMSOL
Analysis of Proton Exchange Membrane Fuel Cell (PEMFC), optimization of current density by parametric geometry
Proton-Exchange Membrane Fuel Cell (PEMFC) in COMSOL
4750580
An electromagnetic and mechanical multi-phisycs model was made to study the deformation of a coil coated in epoxy resin before a high power pulse. The elastic deformation effects are caused by the force of Lorentz between each wire loop.
Analysis of high power coil in COMSOL
An electromagnetic and mechanical multi-phisycs model was made to study the deformation of a coil coated in epoxy resin before a high power pulse. The elastic deformation effects are caused by the force of Lorentz between each wire loop.
Analysis of high power coil in COMSOL
An electromagnetic and mechanical multi-phisycs model was made to study the deformation of a coil coated in epoxy resin before a high power pulse. The elastic deformation effects are caused by the force of Lorentz between each wire loop.
Analysis of high power coil in COMSOL
An electromagnetic and mechanical multi-phisycs model was made to study the deformation of a coil coated in epoxy resin before a high power pulse. The elastic deformation effects are caused by the force of Lorentz between each wire loop.
Analysis of high power coil in COMSOL
An electromagnetic and mechanical multi-phisycs model was made to study the deformation of a coil coated in epoxy resin before a high power pulse. The elastic deformation effects are caused by the force of Lorentz between each wire loop.
Analysis of high power coil in COMSOL
An electromagnetic and mechanical multi-phisycs model was made to study the deformation of a coil coated in epoxy resin before a high power pulse. The elastic deformation effects are caused by the force of Lorentz between each wire loop.
Analysis of high power coil in COMSOL
An electromagnetic and mechanical multi-phisycs model was made to study the deformation of a coil coated in epoxy resin before a high power pulse. The elastic deformation effects are caused by the force of Lorentz between each wire loop.
Analysis of high power coil in COMSOL
4750563
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
Two models were created, one 2D Axis-symmetric and one symmetrical 3D, the latter is the real representation but the Axis-symmetric allows a good approximation for optimization, reducing time. The losses in the core due to the Facault´s currents and in the windings due to the Joule effect are analyzed. The dispersion reactances are also analyzed for analytical comparison and total flow in each domain of the model.
Simulation of isolation transformer in COMSOL
4750521
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
Only the lower jaw was extracted by manual methods and layer interpolation from DICOM data from a skull tomography. The brackets that were present in the DICOM images have been removed. Once a faceted model was obtained, it was solidified by two methods, 1. No fusion of faces 2. Reverse engineering with vectors
Generation of 3D model of mandible from DICOM data
4750499
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
An investigation was made for the implementation in human body, followed by finding the analytical solution for the elastic behavior. It was modeled in SpaceClaim and simulated in Ansys and Comsol (I have not loaded images). The project analyzes the behavior of nitinol and performs the simulation of the manufacturing process and tempering until the operation in the human body.
Simulation of biomedical NITINOL stent in ANSYS
4154374
Creation and modeling in Space Claim of a residual heat recuperator for photovoltaic panels. In addition to the design, documentation is provided that justifies the model, as well as the manufacturing method, material costs and reaction studies of the components with the refrigerant fluid. The design complies with the ASME API standard
3D design and model justification Residual Heat Recuperator
Creation and modeling in Space Claim of a residual heat recuperator for photovoltaic panels. In addition to the design, documentation is provided that justifies the model, as well as the manufacturing method, material costs and reaction studies of the components with the refrigerant fluid. The design complies with the ASME API standard
3D design and model justification Residual Heat Recuperator
Creation and modeling in Space Claim of a residual heat recuperator for photovoltaic panels. In addition to the design, documentation is provided that justifies the model, as well as the manufacturing method, material costs and reaction studies of the components with the refrigerant fluid. The design complies with the ASME API standard
3D design and model justification Residual Heat Recuperator
Creation and modeling in Space Claim of a residual heat recuperator for photovoltaic panels. In addition to the design, documentation is provided that justifies the model, as well as the manufacturing method, material costs and reaction studies of the components with the refrigerant fluid. The design complies with the ASME API standard
3D design and model justification Residual Heat Recuperator
Creation and modeling in Space Claim of a residual heat recuperator for photovoltaic panels. In addition to the design, documentation is provided that justifies the model, as well as the manufacturing method, material costs and reaction studies of the components with the refrigerant fluid. The design complies with the ASME API standard
3D design and model justification Residual Heat Recuperator
Creation and modeling in Space Claim of a residual heat recuperator for photovoltaic panels. In addition to the design, documentation is provided that justifies the model, as well as the manufacturing method, material costs and reaction studies of the components with the refrigerant fluid. The design complies with the ASME API standard
3D design and model justification Residual Heat Recuperator
Creation and modeling in Space Claim of a residual heat recuperator for photovoltaic panels. In addition to the design, documentation is provided that justifies the model, as well as the manufacturing method, material costs and reaction studies of the components with the refrigerant fluid. The design complies with the ASME API standard
3D design and model justification Residual Heat Recuperator

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5,0
$627,00 USD
Project for Diego L. -- 4
This is my 5 th project with him, so that should speak a lot than giving feedback.
Engineering
CAD/CAM
Finite Element Analysis
3D Modelling
+1 más
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Bandera de Alchemy S.
@iMaestro
•
hace 5 años
5,0
£710,00 GBP
Project 17291854 has been deleted
Diego is an excellent professional. His knowledge is very profound, apart he is a great person. I wouldn't hesitate to hire him for my future projects. The job was delivered on time with the highest quality. Very much recommended.
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Bandera de Susanna G.
@SueG18
•
hace 6 años
5,0
$165,00 USD
Project for Diego L. -- 3
Diego A+++++
Engineering
CAD/CAM
Finite Element Analysis
3D Modelling
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Bandera de Alchemy S.
@iMaestro
•
hace 6 años
5,0
€270,00 EUR
Project for Diego L.
Strongly recommended freelancer. All given assignments and more have been done perfectly. Diego is experienced professional and always delivers results on time.
Engineering
CAD/CAM
Finite Element Analysis
3D Modelling
+1 más
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Bandera de Arunas M.
@ArunasM
•
hace 6 años
5,0
$165,00 USD
Project for Diego L. -- 2
He is perfectionist, delivers excellent report beyond expectations, next phase of work already awarded to him, which should speak a lot than this feedback.
Engineering
CAD/CAM
Finite Element Analysis
3D Modelling
+1 más
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Bandera de Alchemy S.
@iMaestro
•
hace 6 años

Experiencia

CEO | CTO

Accuracy Finite Element Analysis
nov 2017 - Presente
Research, development and innovation in engineering. We provide consulting services, training and development of engineering projects. • Design of industrial models • Electronic Design (Hardware, Firmware, Software) • Electronic Engineering Analysis. • Numerical Analysis using the Finite Element Method (FEM) • Finite Element Method Magnetics (FEMM) • Computational fluid dynamics (CFD) • Structural-Mechanics Engineering Analysis • Medical FEA (extraction of 3D model from DICOM data)

System Manager

DELC
dic 2009 - jun 2017 (7 años, 6 meses)
IT services for companies and institutions. • Technology team manager • Creation of corrective and preventive maintenance plan of computer infrastructure • Implementation of ERP for incident management and technical assistance service TAS • Software development • Development of electronic projects (IOT, DSP, RTOS, etc.) • Specific technology projects

Project Leader, Programmer and Functional Analyst

IBM S.A
ago 2006 - jun 2009 (2 años, 10 meses)
Projects: • Project leader in Computed Metrics (Java and Rational Clear Quest) for IBM • Clipper, RPG, .NET Developer for McDonald's • Java EE developer for Orange Spain • Java for IBM personnel training and courses • Development and administration of Siebel Enterprise Server on Unix platform for Telecom Personal S.A.

Calificaciones

ABAP IV

IBM
2007
Capacitación de ABAP IV 176hs

Java

IBM
2008
Capacitación de Java Nivel intermedio 176hs

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Certificaciones

preferredfreelancer-1.png Preferred Freelancer Program SLA 1 97%

Principales habilidades

Finite Element Analysis 9
Engineering 7
CAD/CAM 6
3D Modelling 5
Mechanical Engineering 3

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