Course Features

Price

Original price was: £490.00.Current price is: £14.99.

Study Method

Online | Self-paced

Course Format

Reading Material - PDF, article

Duration

6 hours, 15 minutes

Qualification

No formal qualification

Certificate

At completion

Additional info

Coming soon

Overview

Siemens NX turbine design is a critical skill for engineers and designers working in aerospace and power generation industries. This course offers a comprehensive, hands-on approach to designing advanced gas turbine engine blades, providing learners with practical expertise that aligns with industry standards. Through structured lessons, you will learn how to model, refine, and optimise turbine blades for real-world applications using Siemens NX software.

The programme begins by introducing the core interface and tools within Siemens NX, enabling learners to navigate the software efficiently. You will then work through projects involving 2nd-stage and 4th-stage turbine blades, learning how to prepare aerofoil data, sketch precise sections, and generate complex geometries including fir-tree roots and shroud designs. Cooling channel layout, patterning, and finishing techniques are also covered, giving you full exposure to the detailed workflow required for high-performance blade design.

Throughout the course, emphasis is placed on accuracy, quality control, and iterative refinement—skills that are essential for engineering professionals. Learners gain confidence in creating functional, manufacturable blade models while understanding the rationale behind each design decision. By the end of the training, you will be capable of producing detailed blade geometries, applying finishing adjustments, and documenting your work in a professional format.

This course is ideal for engineers seeking practical mastery of Siemens NX in turbine design. Learners will receive a free course completion certificate, with optional premium certificates and transcripts available for purchase to demonstrate expertise. Additionally, all students have access to 5-star rated support available 24/7 via email, ensuring that guidance and clarification are always accessible.

This course is perfect for mechanical engineers, aerospace designers, CAD professionals, and students preparing for careers in turbine design or advanced manufacturing. It is also suitable for engineers transitioning to Siemens NX from other CAD tools, or those looking to strengthen their practical skills in aero-engine component design with real-world, hands-on projects.
Learners should have a basic understanding of CAD principles and mechanical engineering fundamentals. Access to Siemens NX software is recommended to follow the exercises effectively. A computer capable of running 3D modelling software and an interest in turbine blade design are essential for getting the most from this course.
Completing this course can lead to opportunities in aerospace engineering, turbomachinery design, CAD modelling, and product development roles. Graduates may pursue positions as turbine blade designers, mechanical design engineers, or CAD specialists in power generation and aerospace industries. The course also provides a strong foundation for advanced studies in computational fluid dynamics (CFD) and structural optimisation.

Who is this course for?

Siemens NX turbine design is a critical skill for engineers and designers working in aerospace and power generation industries. This course offers a comprehensive, hands-on approach to designing advanced gas turbine engine blades, providing learners with practical expertise that aligns with industry standards. Through structured lessons, you will learn how to model, refine, and optimise turbine blades for real-world applications using Siemens NX software.

The programme begins by introducing the core interface and tools within Siemens NX, enabling learners to navigate the software efficiently. You will then work through projects involving 2nd-stage and 4th-stage turbine blades, learning how to prepare aerofoil data, sketch precise sections, and generate complex geometries including fir-tree roots and shroud designs. Cooling channel layout, patterning, and finishing techniques are also covered, giving you full exposure to the detailed workflow required for high-performance blade design.

Throughout the course, emphasis is placed on accuracy, quality control, and iterative refinement—skills that are essential for engineering professionals. Learners gain confidence in creating functional, manufacturable blade models while understanding the rationale behind each design decision. By the end of the training, you will be capable of producing detailed blade geometries, applying finishing adjustments, and documenting your work in a professional format.

This course is ideal for engineers seeking practical mastery of Siemens NX in turbine design. Learners will receive a free course completion certificate, with optional premium certificates and transcripts available for purchase to demonstrate expertise. Additionally, all students have access to 5-star rated support available 24/7 via email, ensuring that guidance and clarification are always accessible.

This course is perfect for mechanical engineers, aerospace designers, CAD professionals, and students preparing for careers in turbine design or advanced manufacturing. It is also suitable for engineers transitioning to Siemens NX from other CAD tools, or those looking to strengthen their practical skills in aero-engine component design with real-world, hands-on projects.
Learners should have a basic understanding of CAD principles and mechanical engineering fundamentals. Access to Siemens NX software is recommended to follow the exercises effectively. A computer capable of running 3D modelling software and an interest in turbine blade design are essential for getting the most from this course.
Completing this course can lead to opportunities in aerospace engineering, turbomachinery design, CAD modelling, and product development roles. Graduates may pursue positions as turbine blade designers, mechanical design engineers, or CAD specialists in power generation and aerospace industries. The course also provides a strong foundation for advanced studies in computational fluid dynamics (CFD) and structural optimisation.

Requirements

Siemens NX turbine design is a critical skill for engineers and designers working in aerospace and power generation industries. This course offers a comprehensive, hands-on approach to designing advanced gas turbine engine blades, providing learners with practical expertise that aligns with industry standards. Through structured lessons, you will learn how to model, refine, and optimise turbine blades for real-world applications using Siemens NX software.

The programme begins by introducing the core interface and tools within Siemens NX, enabling learners to navigate the software efficiently. You will then work through projects involving 2nd-stage and 4th-stage turbine blades, learning how to prepare aerofoil data, sketch precise sections, and generate complex geometries including fir-tree roots and shroud designs. Cooling channel layout, patterning, and finishing techniques are also covered, giving you full exposure to the detailed workflow required for high-performance blade design.

Throughout the course, emphasis is placed on accuracy, quality control, and iterative refinement—skills that are essential for engineering professionals. Learners gain confidence in creating functional, manufacturable blade models while understanding the rationale behind each design decision. By the end of the training, you will be capable of producing detailed blade geometries, applying finishing adjustments, and documenting your work in a professional format.

This course is ideal for engineers seeking practical mastery of Siemens NX in turbine design. Learners will receive a free course completion certificate, with optional premium certificates and transcripts available for purchase to demonstrate expertise. Additionally, all students have access to 5-star rated support available 24/7 via email, ensuring that guidance and clarification are always accessible.

This course is perfect for mechanical engineers, aerospace designers, CAD professionals, and students preparing for careers in turbine design or advanced manufacturing. It is also suitable for engineers transitioning to Siemens NX from other CAD tools, or those looking to strengthen their practical skills in aero-engine component design with real-world, hands-on projects.
Learners should have a basic understanding of CAD principles and mechanical engineering fundamentals. Access to Siemens NX software is recommended to follow the exercises effectively. A computer capable of running 3D modelling software and an interest in turbine blade design are essential for getting the most from this course.
Completing this course can lead to opportunities in aerospace engineering, turbomachinery design, CAD modelling, and product development roles. Graduates may pursue positions as turbine blade designers, mechanical design engineers, or CAD specialists in power generation and aerospace industries. The course also provides a strong foundation for advanced studies in computational fluid dynamics (CFD) and structural optimisation.

Career path

Siemens NX turbine design is a critical skill for engineers and designers working in aerospace and power generation industries. This course offers a comprehensive, hands-on approach to designing advanced gas turbine engine blades, providing learners with practical expertise that aligns with industry standards. Through structured lessons, you will learn how to model, refine, and optimise turbine blades for real-world applications using Siemens NX software.

The programme begins by introducing the core interface and tools within Siemens NX, enabling learners to navigate the software efficiently. You will then work through projects involving 2nd-stage and 4th-stage turbine blades, learning how to prepare aerofoil data, sketch precise sections, and generate complex geometries including fir-tree roots and shroud designs. Cooling channel layout, patterning, and finishing techniques are also covered, giving you full exposure to the detailed workflow required for high-performance blade design.

Throughout the course, emphasis is placed on accuracy, quality control, and iterative refinement—skills that are essential for engineering professionals. Learners gain confidence in creating functional, manufacturable blade models while understanding the rationale behind each design decision. By the end of the training, you will be capable of producing detailed blade geometries, applying finishing adjustments, and documenting your work in a professional format.

This course is ideal for engineers seeking practical mastery of Siemens NX in turbine design. Learners will receive a free course completion certificate, with optional premium certificates and transcripts available for purchase to demonstrate expertise. Additionally, all students have access to 5-star rated support available 24/7 via email, ensuring that guidance and clarification are always accessible.

This course is perfect for mechanical engineers, aerospace designers, CAD professionals, and students preparing for careers in turbine design or advanced manufacturing. It is also suitable for engineers transitioning to Siemens NX from other CAD tools, or those looking to strengthen their practical skills in aero-engine component design with real-world, hands-on projects.
Learners should have a basic understanding of CAD principles and mechanical engineering fundamentals. Access to Siemens NX software is recommended to follow the exercises effectively. A computer capable of running 3D modelling software and an interest in turbine blade design are essential for getting the most from this course.
Completing this course can lead to opportunities in aerospace engineering, turbomachinery design, CAD modelling, and product development roles. Graduates may pursue positions as turbine blade designers, mechanical design engineers, or CAD specialists in power generation and aerospace industries. The course also provides a strong foundation for advanced studies in computational fluid dynamics (CFD) and structural optimisation.

    • Introduction — Course Overview and Objectives 00:10:00
    • Introduction to the 2nd-Stage Blade Project 00:10:00
    • Preparing Aerofoil Data for Design 00:10:00
    • Sketching Aerofoil Section I–I 00:10:00
    • Sketching Aerofoil Section II–II 00:10:00
    • Sketching Aerofoil Section III–III 00:10:00
    • Sketching Aerofoil Section IV–IV 00:10:00
    • Sketching Aerofoil Section V–V 00:10:00
    • Sketching the Fir-Tree Cross-Section of the Root 00:10:00
    • Finishing the Root Geometry 00:10:00
    • Modelling the Labyrinth of the Shroud 00:10:00
    • Finalising the Shroud Design 00:10:00
    • Applying Finishing Touches and Quality Checks 00:10:00
    • Introduction to the 4th-Stage Blade Project 00:10:00
    • Preparing Aerofoil Data for Advanced Design 00:10:00
    • Sketching Aerofoil Section I–I 00:10:00
    • Sketching Aerofoil Section II–II 00:10:00
    • Sketching Aerofoil Section III–III 00:10:00
    • Sketching Aerofoil Section IV–IV 00:10:00
    • Sketching Aerofoil Section V–V 00:10:00
    • Generating the Fir-Tree Root Profile 00:10:00
    • Developing the Root Platform 00:10:00
    • Generating the Root Scallop 00:10:00
    • Applying Final Modifications and Polishing 00:10:00
    • Sketching Cooling Channel Section GG 00:10:00
    • Sketching Cooling Channel Section UU 00:10:00
    • Sketching Cooling Channel Section WW 00:10:00
    • Sketching Cooling Channel Section RR 00:10:00
    • Sketching Cooling Channel Section SS 00:10:00
    • Sketching Cooling Channel Section TT 00:10:00
    • Creating and Patterning Cooling Pin Holes 00:10:00
    • Exam of Learn Siemens NX for Advanced Gas Turbine Engine Blade Design 00:50:00
    • Premium Certificate 00:15:00
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Yes, our premium certificate and transcript are widely recognized and accepted by embassies worldwide, particularly by the UK embassy. This adds credibility to your qualification and enhances its value for professional and academic purposes.

Yes, this course is designed for learners of all levels, including beginners. The content is structured to provide step-by-step guidance, ensuring that even those with no prior experience can follow along and gain valuable knowledge.

Yes, professionals will also benefit from this course. It covers advanced concepts, practical applications, and industry insights that can help enhance existing skills and knowledge. Whether you are looking to refine your expertise or expand your qualifications, this course provides valuable learning.

No, you have lifetime access to the course. Once enrolled, you can revisit the materials at any time as long as the course remains available. Additionally, we regularly update our content to ensure it stays relevant and up to date.

I trust you’re in good health. Your free certificate can be located in the Achievement section. The option to purchase a CPD certificate is available but entirely optional, and you may choose to skip it. Please be aware that it’s crucial to click the “Complete” button to ensure the certificate is generated, as this process is entirely automated.

Yes, the course includes both assessments and assignments. Your final marks will be determined by a combination of 20% from assignments and 80% from assessments. These evaluations are designed to test your understanding and ensure you have grasped the key concepts effectively.

We are a recognized course provider with CPD, UKRLP, and AOHT membership. The logos of these accreditation bodies will be featured on your premium certificate and transcript, ensuring credibility and professional recognition.

Yes, you will receive a free digital certificate automatically once you complete the course. If you would like a premium CPD-accredited certificate, either in digital or physical format, you can upgrade for a small fee.

Course Features

Price

Original price was: £490.00.Current price is: £14.99.

Study Method

Online | Self-paced

Course Format

Reading Material - PDF, article

Duration

6 hours, 15 minutes

Qualification

No formal qualification

Certificate

At completion

Additional info

Coming soon

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