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$30 USD / 小时
YEMEN的国旗
أمانة العاصمة, yemen
$30 USD / 小时
目前这里是9:39 下午
四月 5, 2024已加入
0 推荐

Jameel A.

@JameelAlsharif

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$30 USD / 小时
YEMEN的国旗
أمانة العاصمة, yemen
$30 USD / 小时
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Mechanical and Electrical Engineer

I'm mechanical engineer I work in an electrical and renewable energy company. I have design skills in both electrical and mechanical aspects. I have skills in SolidWorks, ANSYS, 3D softwares, PCB design softwares, MATLAB, and other engineering softwares
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11906314
This work is part of a design study project for establishing a hot-dip galvanizing plant, where my role involved designing and simulating the zinc bath and furnace. In the galvanizing industry, furnaces are a crucial part of the process. Their construction includes a rectangular steel pot heated by burners and protected by walls made of heat-resistant bricks or blocks to prevent heat loss and maintain temperature.
Design of a Zinc Furnace for a Hot-Dip Galvanizing Plant
This work is part of a design study project for establishing a hot-dip galvanizing plant, where my role involved designing and simulating the zinc bath and furnace. In the galvanizing industry, furnaces are a crucial part of the process. Their construction includes a rectangular steel pot heated by burners and protected by walls made of heat-resistant bricks or blocks to prevent heat loss and maintain temperature.
Design of a Zinc Furnace for a Hot-Dip Galvanizing Plant
This work is part of a design study project for establishing a hot-dip galvanizing plant, where my role involved designing and simulating the zinc bath and furnace. In the galvanizing industry, furnaces are a crucial part of the process. Their construction includes a rectangular steel pot heated by burners and protected by walls made of heat-resistant bricks or blocks to prevent heat loss and maintain temperature.
Design of a Zinc Furnace for a Hot-Dip Galvanizing Plant
This work is part of a design study project for establishing a hot-dip galvanizing plant, where my role involved designing and simulating the zinc bath and furnace. In the galvanizing industry, furnaces are a crucial part of the process. Their construction includes a rectangular steel pot heated by burners and protected by walls made of heat-resistant bricks or blocks to prevent heat loss and maintain temperature.
Design of a Zinc Furnace for a Hot-Dip Galvanizing Plant
11906293
This project aims to design and build a CNC plasma cutting machine, including sizing and selecting mechanical and electronic components. It involves validating calculations with simulation software, establishing electrical connections, and developing CAM software to generate and verify G-codes from 2D DXF CAD files. The project reviews CNC systems, plasma cutting, and CAD-CAM integration. It details the design process, component selection, and construction drawings. Finally, it covers the electronic design and assembly of the wiring diagram.
Design of CNC Plasma Cutting Machine
This project aims to design and build a CNC plasma cutting machine, including sizing and selecting mechanical and electronic components. It involves validating calculations with simulation software, establishing electrical connections, and developing CAM software to generate and verify G-codes from 2D DXF CAD files. The project reviews CNC systems, plasma cutting, and CAD-CAM integration. It details the design process, component selection, and construction drawings. Finally, it covers the electronic design and assembly of the wiring diagram.
Design of CNC Plasma Cutting Machine
This project aims to design and build a CNC plasma cutting machine, including sizing and selecting mechanical and electronic components. It involves validating calculations with simulation software, establishing electrical connections, and developing CAM software to generate and verify G-codes from 2D DXF CAD files. The project reviews CNC systems, plasma cutting, and CAD-CAM integration. It details the design process, component selection, and construction drawings. Finally, it covers the electronic design and assembly of the wiring diagram.
Design of CNC Plasma Cutting Machine
This project aims to design and build a CNC plasma cutting machine, including sizing and selecting mechanical and electronic components. It involves validating calculations with simulation software, establishing electrical connections, and developing CAM software to generate and verify G-codes from 2D DXF CAD files. The project reviews CNC systems, plasma cutting, and CAD-CAM integration. It details the design process, component selection, and construction drawings. Finally, it covers the electronic design and assembly of the wiring diagram.
Design of CNC Plasma Cutting Machine
This project aims to design and build a CNC plasma cutting machine, including sizing and selecting mechanical and electronic components. It involves validating calculations with simulation software, establishing electrical connections, and developing CAM software to generate and verify G-codes from 2D DXF CAD files. The project reviews CNC systems, plasma cutting, and CAD-CAM integration. It details the design process, component selection, and construction drawings. Finally, it covers the electronic design and assembly of the wiring diagram.
Design of CNC Plasma Cutting Machine
11900791
Designing a permanent magnet generator for wind turbines involves complex considerations across magnetic, electrical, mechanical, and thermal aspects. This paper presents a comprehensive design approach, starting with gearbox outputs to determine speed, torque, and power. Using simulation tools like MATLAB and ANSYS, the design is optimized and validated through 1D, 2D, and 3D analyses. Manufacturing includes sourcing materials like laminated electrical steel and ferrite magnets, with custom tooling for assembly. This approach ensures the generator meets performance standards for integration into wind turbine systems, promoting sustainable energy generation.
Design of a Permanent Magnet Generator for Wind Turbines
Designing a permanent magnet generator for wind turbines involves complex considerations across magnetic, electrical, mechanical, and thermal aspects. This paper presents a comprehensive design approach, starting with gearbox outputs to determine speed, torque, and power. Using simulation tools like MATLAB and ANSYS, the design is optimized and validated through 1D, 2D, and 3D analyses. Manufacturing includes sourcing materials like laminated electrical steel and ferrite magnets, with custom tooling for assembly. This approach ensures the generator meets performance standards for integration into wind turbine systems, promoting sustainable energy generation.
Design of a Permanent Magnet Generator for Wind Turbines
Designing a permanent magnet generator for wind turbines involves complex considerations across magnetic, electrical, mechanical, and thermal aspects. This paper presents a comprehensive design approach, starting with gearbox outputs to determine speed, torque, and power. Using simulation tools like MATLAB and ANSYS, the design is optimized and validated through 1D, 2D, and 3D analyses. Manufacturing includes sourcing materials like laminated electrical steel and ferrite magnets, with custom tooling for assembly. This approach ensures the generator meets performance standards for integration into wind turbine systems, promoting sustainable energy generation.
Design of a Permanent Magnet Generator for Wind Turbines
Designing a permanent magnet generator for wind turbines involves complex considerations across magnetic, electrical, mechanical, and thermal aspects. This paper presents a comprehensive design approach, starting with gearbox outputs to determine speed, torque, and power. Using simulation tools like MATLAB and ANSYS, the design is optimized and validated through 1D, 2D, and 3D analyses. Manufacturing includes sourcing materials like laminated electrical steel and ferrite magnets, with custom tooling for assembly. This approach ensures the generator meets performance standards for integration into wind turbine systems, promoting sustainable energy generation.
Design of a Permanent Magnet Generator for Wind Turbines
Designing a permanent magnet generator for wind turbines involves complex considerations across magnetic, electrical, mechanical, and thermal aspects. This paper presents a comprehensive design approach, starting with gearbox outputs to determine speed, torque, and power. Using simulation tools like MATLAB and ANSYS, the design is optimized and validated through 1D, 2D, and 3D analyses. Manufacturing includes sourcing materials like laminated electrical steel and ferrite magnets, with custom tooling for assembly. This approach ensures the generator meets performance standards for integration into wind turbine systems, promoting sustainable energy generation.
Design of a Permanent Magnet Generator for Wind Turbines
Designing a permanent magnet generator for wind turbines involves complex considerations across magnetic, electrical, mechanical, and thermal aspects. This paper presents a comprehensive design approach, starting with gearbox outputs to determine speed, torque, and power. Using simulation tools like MATLAB and ANSYS, the design is optimized and validated through 1D, 2D, and 3D analyses. Manufacturing includes sourcing materials like laminated electrical steel and ferrite magnets, with custom tooling for assembly. This approach ensures the generator meets performance standards for integration into wind turbine systems, promoting sustainable energy generation.
Design of a Permanent Magnet Generator for Wind Turbines
Designing a permanent magnet generator for wind turbines involves complex considerations across magnetic, electrical, mechanical, and thermal aspects. This paper presents a comprehensive design approach, starting with gearbox outputs to determine speed, torque, and power. Using simulation tools like MATLAB and ANSYS, the design is optimized and validated through 1D, 2D, and 3D analyses. Manufacturing includes sourcing materials like laminated electrical steel and ferrite magnets, with custom tooling for assembly. This approach ensures the generator meets performance standards for integration into wind turbine systems, promoting sustainable energy generation.
Design of a Permanent Magnet Generator for Wind Turbines
11900788
The project aims to enhance wind turbine blade performance by utilizing available technologies and considering constraints such as limited resources. The focus is on developing blade designs that optimize material use, manufacturing techniques, and performance while reducing costs. Alternative and cost-effective materials are considered for blade manufacturing. Analytical models and computational simulations are deployed to validate the initial design and analyze multiple parameters. Simulations and mold production are conducted before manufacturing the blades. Assembly, installation, and testing processes evaluate blade performance.
Designing, Optimizing, and Manufacturing of HAWT
The project aims to enhance wind turbine blade performance by utilizing available technologies and considering constraints such as limited resources. The focus is on developing blade designs that optimize material use, manufacturing techniques, and performance while reducing costs. Alternative and cost-effective materials are considered for blade manufacturing. Analytical models and computational simulations are deployed to validate the initial design and analyze multiple parameters. Simulations and mold production are conducted before manufacturing the blades. Assembly, installation, and testing processes evaluate blade performance.
Designing, Optimizing, and Manufacturing of HAWT
The project aims to enhance wind turbine blade performance by utilizing available technologies and considering constraints such as limited resources. The focus is on developing blade designs that optimize material use, manufacturing techniques, and performance while reducing costs. Alternative and cost-effective materials are considered for blade manufacturing. Analytical models and computational simulations are deployed to validate the initial design and analyze multiple parameters. Simulations and mold production are conducted before manufacturing the blades. Assembly, installation, and testing processes evaluate blade performance.
Designing, Optimizing, and Manufacturing of HAWT
The project aims to enhance wind turbine blade performance by utilizing available technologies and considering constraints such as limited resources. The focus is on developing blade designs that optimize material use, manufacturing techniques, and performance while reducing costs. Alternative and cost-effective materials are considered for blade manufacturing. Analytical models and computational simulations are deployed to validate the initial design and analyze multiple parameters. Simulations and mold production are conducted before manufacturing the blades. Assembly, installation, and testing processes evaluate blade performance.
Designing, Optimizing, and Manufacturing of HAWT
The project aims to enhance wind turbine blade performance by utilizing available technologies and considering constraints such as limited resources. The focus is on developing blade designs that optimize material use, manufacturing techniques, and performance while reducing costs. Alternative and cost-effective materials are considered for blade manufacturing. Analytical models and computational simulations are deployed to validate the initial design and analyze multiple parameters. Simulations and mold production are conducted before manufacturing the blades. Assembly, installation, and testing processes evaluate blade performance.
Designing, Optimizing, and Manufacturing of HAWT
11900782
Interest in small gas turbine engines for remote-controlled aircraft has grown. Unlike larger counterparts with complex multi-stage compressors and turbines, RC jet engines use simpler single-stage designs, often pairing centrifugal compressors with axial turbines. Advances in manufacturing and 3D modeling now allow for the creation of complete miniature gas turbines with modest investment. This project aims to design, analyze, and manufacture a small jet engine using available resources and software tools. Literature on gas turbine design was reviewed, and components were studied using software like SOLIDWORKS, ANSYS, CFTurbo, and Fine/Turbo. Simulations were conducted on intake, compressor, combustion, turbine, and exhaust nozzle stages, closely aligning with theoretical predictions. Finally, components were assembled to meet specifications.
Design and Numerical Simulation of Small Jet Engine
Interest in small gas turbine engines for remote-controlled aircraft has grown. Unlike larger counterparts with complex multi-stage compressors and turbines, RC jet engines use simpler single-stage designs, often pairing centrifugal compressors with axial turbines. Advances in manufacturing and 3D modeling now allow for the creation of complete miniature gas turbines with modest investment. This project aims to design, analyze, and manufacture a small jet engine using available resources and software tools. Literature on gas turbine design was reviewed, and components were studied using software like SOLIDWORKS, ANSYS, CFTurbo, and Fine/Turbo. Simulations were conducted on intake, compressor, combustion, turbine, and exhaust nozzle stages, closely aligning with theoretical predictions. Finally, components were assembled to meet specifications.
Design and Numerical Simulation of Small Jet Engine
Interest in small gas turbine engines for remote-controlled aircraft has grown. Unlike larger counterparts with complex multi-stage compressors and turbines, RC jet engines use simpler single-stage designs, often pairing centrifugal compressors with axial turbines. Advances in manufacturing and 3D modeling now allow for the creation of complete miniature gas turbines with modest investment. This project aims to design, analyze, and manufacture a small jet engine using available resources and software tools. Literature on gas turbine design was reviewed, and components were studied using software like SOLIDWORKS, ANSYS, CFTurbo, and Fine/Turbo. Simulations were conducted on intake, compressor, combustion, turbine, and exhaust nozzle stages, closely aligning with theoretical predictions. Finally, components were assembled to meet specifications.
Design and Numerical Simulation of Small Jet Engine
Interest in small gas turbine engines for remote-controlled aircraft has grown. Unlike larger counterparts with complex multi-stage compressors and turbines, RC jet engines use simpler single-stage designs, often pairing centrifugal compressors with axial turbines. Advances in manufacturing and 3D modeling now allow for the creation of complete miniature gas turbines with modest investment. This project aims to design, analyze, and manufacture a small jet engine using available resources and software tools. Literature on gas turbine design was reviewed, and components were studied using software like SOLIDWORKS, ANSYS, CFTurbo, and Fine/Turbo. Simulations were conducted on intake, compressor, combustion, turbine, and exhaust nozzle stages, closely aligning with theoretical predictions. Finally, components were assembled to meet specifications.
Design and Numerical Simulation of Small Jet Engine
Interest in small gas turbine engines for remote-controlled aircraft has grown. Unlike larger counterparts with complex multi-stage compressors and turbines, RC jet engines use simpler single-stage designs, often pairing centrifugal compressors with axial turbines. Advances in manufacturing and 3D modeling now allow for the creation of complete miniature gas turbines with modest investment. This project aims to design, analyze, and manufacture a small jet engine using available resources and software tools. Literature on gas turbine design was reviewed, and components were studied using software like SOLIDWORKS, ANSYS, CFTurbo, and Fine/Turbo. Simulations were conducted on intake, compressor, combustion, turbine, and exhaust nozzle stages, closely aligning with theoretical predictions. Finally, components were assembled to meet specifications.
Design and Numerical Simulation of Small Jet Engine
Interest in small gas turbine engines for remote-controlled aircraft has grown. Unlike larger counterparts with complex multi-stage compressors and turbines, RC jet engines use simpler single-stage designs, often pairing centrifugal compressors with axial turbines. Advances in manufacturing and 3D modeling now allow for the creation of complete miniature gas turbines with modest investment. This project aims to design, analyze, and manufacture a small jet engine using available resources and software tools. Literature on gas turbine design was reviewed, and components were studied using software like SOLIDWORKS, ANSYS, CFTurbo, and Fine/Turbo. Simulations were conducted on intake, compressor, combustion, turbine, and exhaust nozzle stages, closely aligning with theoretical predictions. Finally, components were assembled to meet specifications.
Design and Numerical Simulation of Small Jet Engine
Interest in small gas turbine engines for remote-controlled aircraft has grown. Unlike larger counterparts with complex multi-stage compressors and turbines, RC jet engines use simpler single-stage designs, often pairing centrifugal compressors with axial turbines. Advances in manufacturing and 3D modeling now allow for the creation of complete miniature gas turbines with modest investment. This project aims to design, analyze, and manufacture a small jet engine using available resources and software tools. Literature on gas turbine design was reviewed, and components were studied using software like SOLIDWORKS, ANSYS, CFTurbo, and Fine/Turbo. Simulations were conducted on intake, compressor, combustion, turbine, and exhaust nozzle stages, closely aligning with theoretical predictions. Finally, components were assembled to meet specifications.
Design and Numerical Simulation of Small Jet Engine
Interest in small gas turbine engines for remote-controlled aircraft has grown. Unlike larger counterparts with complex multi-stage compressors and turbines, RC jet engines use simpler single-stage designs, often pairing centrifugal compressors with axial turbines. Advances in manufacturing and 3D modeling now allow for the creation of complete miniature gas turbines with modest investment. This project aims to design, analyze, and manufacture a small jet engine using available resources and software tools. Literature on gas turbine design was reviewed, and components were studied using software like SOLIDWORKS, ANSYS, CFTurbo, and Fine/Turbo. Simulations were conducted on intake, compressor, combustion, turbine, and exhaust nozzle stages, closely aligning with theoretical predictions. Finally, components were assembled to meet specifications.
Design and Numerical Simulation of Small Jet Engine
11906314
This work is part of a design study project for establishing a hot-dip galvanizing plant, where my role involved designing and simulating the zinc bath and furnace. In the galvanizing industry, furnaces are a crucial part of the process. Their construction includes a rectangular steel pot heated by burners and protected by walls made of heat-resistant bricks or blocks to prevent heat loss and maintain temperature.
Design of a Zinc Furnace for a Hot-Dip Galvanizing Plant
This work is part of a design study project for establishing a hot-dip galvanizing plant, where my role involved designing and simulating the zinc bath and furnace. In the galvanizing industry, furnaces are a crucial part of the process. Their construction includes a rectangular steel pot heated by burners and protected by walls made of heat-resistant bricks or blocks to prevent heat loss and maintain temperature.
Design of a Zinc Furnace for a Hot-Dip Galvanizing Plant
This work is part of a design study project for establishing a hot-dip galvanizing plant, where my role involved designing and simulating the zinc bath and furnace. In the galvanizing industry, furnaces are a crucial part of the process. Their construction includes a rectangular steel pot heated by burners and protected by walls made of heat-resistant bricks or blocks to prevent heat loss and maintain temperature.
Design of a Zinc Furnace for a Hot-Dip Galvanizing Plant
This work is part of a design study project for establishing a hot-dip galvanizing plant, where my role involved designing and simulating the zinc bath and furnace. In the galvanizing industry, furnaces are a crucial part of the process. Their construction includes a rectangular steel pot heated by burners and protected by walls made of heat-resistant bricks or blocks to prevent heat loss and maintain temperature.
Design of a Zinc Furnace for a Hot-Dip Galvanizing Plant
11906293
This project aims to design and build a CNC plasma cutting machine, including sizing and selecting mechanical and electronic components. It involves validating calculations with simulation software, establishing electrical connections, and developing CAM software to generate and verify G-codes from 2D DXF CAD files. The project reviews CNC systems, plasma cutting, and CAD-CAM integration. It details the design process, component selection, and construction drawings. Finally, it covers the electronic design and assembly of the wiring diagram.
Design of CNC Plasma Cutting Machine
This project aims to design and build a CNC plasma cutting machine, including sizing and selecting mechanical and electronic components. It involves validating calculations with simulation software, establishing electrical connections, and developing CAM software to generate and verify G-codes from 2D DXF CAD files. The project reviews CNC systems, plasma cutting, and CAD-CAM integration. It details the design process, component selection, and construction drawings. Finally, it covers the electronic design and assembly of the wiring diagram.
Design of CNC Plasma Cutting Machine
This project aims to design and build a CNC plasma cutting machine, including sizing and selecting mechanical and electronic components. It involves validating calculations with simulation software, establishing electrical connections, and developing CAM software to generate and verify G-codes from 2D DXF CAD files. The project reviews CNC systems, plasma cutting, and CAD-CAM integration. It details the design process, component selection, and construction drawings. Finally, it covers the electronic design and assembly of the wiring diagram.
Design of CNC Plasma Cutting Machine
This project aims to design and build a CNC plasma cutting machine, including sizing and selecting mechanical and electronic components. It involves validating calculations with simulation software, establishing electrical connections, and developing CAM software to generate and verify G-codes from 2D DXF CAD files. The project reviews CNC systems, plasma cutting, and CAD-CAM integration. It details the design process, component selection, and construction drawings. Finally, it covers the electronic design and assembly of the wiring diagram.
Design of CNC Plasma Cutting Machine
This project aims to design and build a CNC plasma cutting machine, including sizing and selecting mechanical and electronic components. It involves validating calculations with simulation software, establishing electrical connections, and developing CAM software to generate and verify G-codes from 2D DXF CAD files. The project reviews CNC systems, plasma cutting, and CAD-CAM integration. It details the design process, component selection, and construction drawings. Finally, it covers the electronic design and assembly of the wiring diagram.
Design of CNC Plasma Cutting Machine
11900791
Designing a permanent magnet generator for wind turbines involves complex considerations across magnetic, electrical, mechanical, and thermal aspects. This paper presents a comprehensive design approach, starting with gearbox outputs to determine speed, torque, and power. Using simulation tools like MATLAB and ANSYS, the design is optimized and validated through 1D, 2D, and 3D analyses. Manufacturing includes sourcing materials like laminated electrical steel and ferrite magnets, with custom tooling for assembly. This approach ensures the generator meets performance standards for integration into wind turbine systems, promoting sustainable energy generation.
Design of a Permanent Magnet Generator for Wind Turbines
Designing a permanent magnet generator for wind turbines involves complex considerations across magnetic, electrical, mechanical, and thermal aspects. This paper presents a comprehensive design approach, starting with gearbox outputs to determine speed, torque, and power. Using simulation tools like MATLAB and ANSYS, the design is optimized and validated through 1D, 2D, and 3D analyses. Manufacturing includes sourcing materials like laminated electrical steel and ferrite magnets, with custom tooling for assembly. This approach ensures the generator meets performance standards for integration into wind turbine systems, promoting sustainable energy generation.
Design of a Permanent Magnet Generator for Wind Turbines
Designing a permanent magnet generator for wind turbines involves complex considerations across magnetic, electrical, mechanical, and thermal aspects. This paper presents a comprehensive design approach, starting with gearbox outputs to determine speed, torque, and power. Using simulation tools like MATLAB and ANSYS, the design is optimized and validated through 1D, 2D, and 3D analyses. Manufacturing includes sourcing materials like laminated electrical steel and ferrite magnets, with custom tooling for assembly. This approach ensures the generator meets performance standards for integration into wind turbine systems, promoting sustainable energy generation.
Design of a Permanent Magnet Generator for Wind Turbines
Designing a permanent magnet generator for wind turbines involves complex considerations across magnetic, electrical, mechanical, and thermal aspects. This paper presents a comprehensive design approach, starting with gearbox outputs to determine speed, torque, and power. Using simulation tools like MATLAB and ANSYS, the design is optimized and validated through 1D, 2D, and 3D analyses. Manufacturing includes sourcing materials like laminated electrical steel and ferrite magnets, with custom tooling for assembly. This approach ensures the generator meets performance standards for integration into wind turbine systems, promoting sustainable energy generation.
Design of a Permanent Magnet Generator for Wind Turbines
Designing a permanent magnet generator for wind turbines involves complex considerations across magnetic, electrical, mechanical, and thermal aspects. This paper presents a comprehensive design approach, starting with gearbox outputs to determine speed, torque, and power. Using simulation tools like MATLAB and ANSYS, the design is optimized and validated through 1D, 2D, and 3D analyses. Manufacturing includes sourcing materials like laminated electrical steel and ferrite magnets, with custom tooling for assembly. This approach ensures the generator meets performance standards for integration into wind turbine systems, promoting sustainable energy generation.
Design of a Permanent Magnet Generator for Wind Turbines
Designing a permanent magnet generator for wind turbines involves complex considerations across magnetic, electrical, mechanical, and thermal aspects. This paper presents a comprehensive design approach, starting with gearbox outputs to determine speed, torque, and power. Using simulation tools like MATLAB and ANSYS, the design is optimized and validated through 1D, 2D, and 3D analyses. Manufacturing includes sourcing materials like laminated electrical steel and ferrite magnets, with custom tooling for assembly. This approach ensures the generator meets performance standards for integration into wind turbine systems, promoting sustainable energy generation.
Design of a Permanent Magnet Generator for Wind Turbines
Designing a permanent magnet generator for wind turbines involves complex considerations across magnetic, electrical, mechanical, and thermal aspects. This paper presents a comprehensive design approach, starting with gearbox outputs to determine speed, torque, and power. Using simulation tools like MATLAB and ANSYS, the design is optimized and validated through 1D, 2D, and 3D analyses. Manufacturing includes sourcing materials like laminated electrical steel and ferrite magnets, with custom tooling for assembly. This approach ensures the generator meets performance standards for integration into wind turbine systems, promoting sustainable energy generation.
Design of a Permanent Magnet Generator for Wind Turbines
11900788
The project aims to enhance wind turbine blade performance by utilizing available technologies and considering constraints such as limited resources. The focus is on developing blade designs that optimize material use, manufacturing techniques, and performance while reducing costs. Alternative and cost-effective materials are considered for blade manufacturing. Analytical models and computational simulations are deployed to validate the initial design and analyze multiple parameters. Simulations and mold production are conducted before manufacturing the blades. Assembly, installation, and testing processes evaluate blade performance.
Designing, Optimizing, and Manufacturing of HAWT
The project aims to enhance wind turbine blade performance by utilizing available technologies and considering constraints such as limited resources. The focus is on developing blade designs that optimize material use, manufacturing techniques, and performance while reducing costs. Alternative and cost-effective materials are considered for blade manufacturing. Analytical models and computational simulations are deployed to validate the initial design and analyze multiple parameters. Simulations and mold production are conducted before manufacturing the blades. Assembly, installation, and testing processes evaluate blade performance.
Designing, Optimizing, and Manufacturing of HAWT
The project aims to enhance wind turbine blade performance by utilizing available technologies and considering constraints such as limited resources. The focus is on developing blade designs that optimize material use, manufacturing techniques, and performance while reducing costs. Alternative and cost-effective materials are considered for blade manufacturing. Analytical models and computational simulations are deployed to validate the initial design and analyze multiple parameters. Simulations and mold production are conducted before manufacturing the blades. Assembly, installation, and testing processes evaluate blade performance.
Designing, Optimizing, and Manufacturing of HAWT
The project aims to enhance wind turbine blade performance by utilizing available technologies and considering constraints such as limited resources. The focus is on developing blade designs that optimize material use, manufacturing techniques, and performance while reducing costs. Alternative and cost-effective materials are considered for blade manufacturing. Analytical models and computational simulations are deployed to validate the initial design and analyze multiple parameters. Simulations and mold production are conducted before manufacturing the blades. Assembly, installation, and testing processes evaluate blade performance.
Designing, Optimizing, and Manufacturing of HAWT
The project aims to enhance wind turbine blade performance by utilizing available technologies and considering constraints such as limited resources. The focus is on developing blade designs that optimize material use, manufacturing techniques, and performance while reducing costs. Alternative and cost-effective materials are considered for blade manufacturing. Analytical models and computational simulations are deployed to validate the initial design and analyze multiple parameters. Simulations and mold production are conducted before manufacturing the blades. Assembly, installation, and testing processes evaluate blade performance.
Designing, Optimizing, and Manufacturing of HAWT
11900782
Interest in small gas turbine engines for remote-controlled aircraft has grown. Unlike larger counterparts with complex multi-stage compressors and turbines, RC jet engines use simpler single-stage designs, often pairing centrifugal compressors with axial turbines. Advances in manufacturing and 3D modeling now allow for the creation of complete miniature gas turbines with modest investment. This project aims to design, analyze, and manufacture a small jet engine using available resources and software tools. Literature on gas turbine design was reviewed, and components were studied using software like SOLIDWORKS, ANSYS, CFTurbo, and Fine/Turbo. Simulations were conducted on intake, compressor, combustion, turbine, and exhaust nozzle stages, closely aligning with theoretical predictions. Finally, components were assembled to meet specifications.
Design and Numerical Simulation of Small Jet Engine
Interest in small gas turbine engines for remote-controlled aircraft has grown. Unlike larger counterparts with complex multi-stage compressors and turbines, RC jet engines use simpler single-stage designs, often pairing centrifugal compressors with axial turbines. Advances in manufacturing and 3D modeling now allow for the creation of complete miniature gas turbines with modest investment. This project aims to design, analyze, and manufacture a small jet engine using available resources and software tools. Literature on gas turbine design was reviewed, and components were studied using software like SOLIDWORKS, ANSYS, CFTurbo, and Fine/Turbo. Simulations were conducted on intake, compressor, combustion, turbine, and exhaust nozzle stages, closely aligning with theoretical predictions. Finally, components were assembled to meet specifications.
Design and Numerical Simulation of Small Jet Engine
Interest in small gas turbine engines for remote-controlled aircraft has grown. Unlike larger counterparts with complex multi-stage compressors and turbines, RC jet engines use simpler single-stage designs, often pairing centrifugal compressors with axial turbines. Advances in manufacturing and 3D modeling now allow for the creation of complete miniature gas turbines with modest investment. This project aims to design, analyze, and manufacture a small jet engine using available resources and software tools. Literature on gas turbine design was reviewed, and components were studied using software like SOLIDWORKS, ANSYS, CFTurbo, and Fine/Turbo. Simulations were conducted on intake, compressor, combustion, turbine, and exhaust nozzle stages, closely aligning with theoretical predictions. Finally, components were assembled to meet specifications.
Design and Numerical Simulation of Small Jet Engine
Interest in small gas turbine engines for remote-controlled aircraft has grown. Unlike larger counterparts with complex multi-stage compressors and turbines, RC jet engines use simpler single-stage designs, often pairing centrifugal compressors with axial turbines. Advances in manufacturing and 3D modeling now allow for the creation of complete miniature gas turbines with modest investment. This project aims to design, analyze, and manufacture a small jet engine using available resources and software tools. Literature on gas turbine design was reviewed, and components were studied using software like SOLIDWORKS, ANSYS, CFTurbo, and Fine/Turbo. Simulations were conducted on intake, compressor, combustion, turbine, and exhaust nozzle stages, closely aligning with theoretical predictions. Finally, components were assembled to meet specifications.
Design and Numerical Simulation of Small Jet Engine
Interest in small gas turbine engines for remote-controlled aircraft has grown. Unlike larger counterparts with complex multi-stage compressors and turbines, RC jet engines use simpler single-stage designs, often pairing centrifugal compressors with axial turbines. Advances in manufacturing and 3D modeling now allow for the creation of complete miniature gas turbines with modest investment. This project aims to design, analyze, and manufacture a small jet engine using available resources and software tools. Literature on gas turbine design was reviewed, and components were studied using software like SOLIDWORKS, ANSYS, CFTurbo, and Fine/Turbo. Simulations were conducted on intake, compressor, combustion, turbine, and exhaust nozzle stages, closely aligning with theoretical predictions. Finally, components were assembled to meet specifications.
Design and Numerical Simulation of Small Jet Engine
Interest in small gas turbine engines for remote-controlled aircraft has grown. Unlike larger counterparts with complex multi-stage compressors and turbines, RC jet engines use simpler single-stage designs, often pairing centrifugal compressors with axial turbines. Advances in manufacturing and 3D modeling now allow for the creation of complete miniature gas turbines with modest investment. This project aims to design, analyze, and manufacture a small jet engine using available resources and software tools. Literature on gas turbine design was reviewed, and components were studied using software like SOLIDWORKS, ANSYS, CFTurbo, and Fine/Turbo. Simulations were conducted on intake, compressor, combustion, turbine, and exhaust nozzle stages, closely aligning with theoretical predictions. Finally, components were assembled to meet specifications.
Design and Numerical Simulation of Small Jet Engine
Interest in small gas turbine engines for remote-controlled aircraft has grown. Unlike larger counterparts with complex multi-stage compressors and turbines, RC jet engines use simpler single-stage designs, often pairing centrifugal compressors with axial turbines. Advances in manufacturing and 3D modeling now allow for the creation of complete miniature gas turbines with modest investment. This project aims to design, analyze, and manufacture a small jet engine using available resources and software tools. Literature on gas turbine design was reviewed, and components were studied using software like SOLIDWORKS, ANSYS, CFTurbo, and Fine/Turbo. Simulations were conducted on intake, compressor, combustion, turbine, and exhaust nozzle stages, closely aligning with theoretical predictions. Finally, components were assembled to meet specifications.
Design and Numerical Simulation of Small Jet Engine
Interest in small gas turbine engines for remote-controlled aircraft has grown. Unlike larger counterparts with complex multi-stage compressors and turbines, RC jet engines use simpler single-stage designs, often pairing centrifugal compressors with axial turbines. Advances in manufacturing and 3D modeling now allow for the creation of complete miniature gas turbines with modest investment. This project aims to design, analyze, and manufacture a small jet engine using available resources and software tools. Literature on gas turbine design was reviewed, and components were studied using software like SOLIDWORKS, ANSYS, CFTurbo, and Fine/Turbo. Simulations were conducted on intake, compressor, combustion, turbine, and exhaust nozzle stages, closely aligning with theoretical predictions. Finally, components were assembled to meet specifications.
Design and Numerical Simulation of Small Jet Engine

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$180.00 USD
Ansus Maxwell 3D Electronic Simulation
Jameel is really superb freelancer, amazing engineer , such an ansus maxwell pro, he knows more information and knowledge than what was required in my project, During the scope of the project, Jameel demonstrated a good work ethic and successfully completed the project within the agreed upon time. I can also happily report that the work not only met my expectations, it exceeded them. I have no reservations giving Jameel my highest recommendation. Looking forward to working with him again.
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的国旗 Hady S.
@hadysaied2018
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7 天前

经验

Mechanical Electrical Design Engineer

General Corporation for Electrical Industries & Renewable Energy
7月 2022 - 现在
Missions or tasks realized:  Designed and manufactured horizontal axis wind turbines.  Conducted design and financial studies for CNC plasma cutting machines.  Designed and simulated small jet engines.  Designed and manufactured electrical Permanent Magnet Generators for wind turbines.  Conducted design and simulations for CNC machines.  Designed and simulated induction furnaces.

教育

Bachelor Degree in Mechanical Engineering

Sana'a University, Yemen 2017 - 2021
(4 年)

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