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5.0

(2 reviews)

Yohans Kevin T.

@yohanst5

5.0

2

1.0

1.0

100%

Mechanical CAD Designer | AutoCAD | SolidWorks

$9 USD / Hour

・

Argentina (3:21 PM)

・

Joined on March 30, 2026

$9 USD / Hour

・

Electromechanical Engineer with hands-on experience in maintenance, diagnostics, and repair of electrical and mechanical systems. I am committed to delivering quality work, meeting deadlines, and maintaining clear communication with clients.

Verifications

On time

100%

On budget

100%

Accept rate

100%

See all 3D Rendering Experts in Argentina

Portfolio

Portfolio

Optimization and dimensional adjustment of a 3D printed electronic housing, focused on improving airflow, manufacturability, and structural consistency.

The project involved modifying an existing .STEP model to meet updated dimensional requirements while preserving functionality and ensuring compatibility with internal components.

Key aspects of the work:

* Adjustment of overall dimensions to meet specific design constraints
* Redesign of ventilation patterns to improve airflow and thermal performance
* Optimization of perforation geometry for uniform distribution and printability
* Modification of internal mounting features (pads, holes, and alignments)
* Correction of wall continuity and structural details to ensure proper 3D printing results
* Alignment of fastening features between housing and cover

Special attention was given to maintaining geometric consistency and ensuring that all modifications remained compatible with manufacturing processes, particularly 3D printing.

Thi

3D Printed Electronics Enclosure

Optimization and dimensional adjustment of a 3D printed electronic housing, focused on improving airflow, manufacturability, and structural consistency.

The project involved modifying an existing .STEP model to meet updated dimensional requirements while preserving functionality and ensuring compatibility with internal components.

Key aspects of the work:

* Adjustment of overall dimensions to meet specific design constraints
* Redesign of ventilation patterns to improve airflow and thermal performance
* Optimization of perforation geometry for uniform distribution and printability
* Modification of internal mounting features (pads, holes, and alignments)
* Correction of wall continuity and structural details to ensure proper 3D printing results
* Alignment of fastening features between housing and cover

Special attention was given to maintaining geometric consistency and ensuring that all modifications remained compatible with manufacturing processes, particularly 3D printing.

Thi

3D Printed Electronics Enclosure

Optimization and dimensional adjustment of a 3D printed electronic housing, focused on improving airflow, manufacturability, and structural consistency.

The project involved modifying an existing .STEP model to meet updated dimensional requirements while preserving functionality and ensuring compatibility with internal components.

Key aspects of the work:

* Adjustment of overall dimensions to meet specific design constraints
* Redesign of ventilation patterns to improve airflow and thermal performance
* Optimization of perforation geometry for uniform distribution and printability
* Modification of internal mounting features (pads, holes, and alignments)
* Correction of wall continuity and structural details to ensure proper 3D printing results
* Alignment of fastening features between housing and cover

Special attention was given to maintaining geometric consistency and ensuring that all modifications remained compatible with manufacturing processes, particularly 3D printing.

Thi

3D Printed Electronics Enclosure

Optimization and dimensional adjustment of a 3D printed electronic housing, focused on improving airflow, manufacturability, and structural consistency.

The project involved modifying an existing .STEP model to meet updated dimensional requirements while preserving functionality and ensuring compatibility with internal components.

Key aspects of the work:

* Adjustment of overall dimensions to meet specific design constraints
* Redesign of ventilation patterns to improve airflow and thermal performance
* Optimization of perforation geometry for uniform distribution and printability
* Modification of internal mounting features (pads, holes, and alignments)
* Correction of wall continuity and structural details to ensure proper 3D printing results
* Alignment of fastening features between housing and cover

Special attention was given to maintaining geometric consistency and ensuring that all modifications remained compatible with manufacturing processes, particularly 3D printing.

Thi

3D Printed Electronics Enclosure

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Structural analysis and static simulation (FEA) of mechanical components to verify strength, deformation, and safety under working conditions.

This work includes the evaluation of parts subjected to mechanical loads, ensuring that stresses and displacements remain within allowable limits of the selected materials.

Scope of work:

- Definition of loads and boundary conditions based on real use cases
- Assignment of material properties
- Finite Element Analysis (FEA) for stress and deformation evaluation
- Identification of critical zones (stress concentration areas)
- Design validation and, if required, proposal of geometry improvements

The simulations were used to support design decisions and ensure structural reliability before manufacturing.

This project demonstrates the ability to go beyond modeling, incorporating engineering validation into the design process.

Structural Simulation (FEA)

Structural analysis and static simulation (FEA) of mechanical components to verify strength, deformation, and safety under working conditions.

This work includes the evaluation of parts subjected to mechanical loads, ensuring that stresses and displacements remain within allowable limits of the selected materials.

Scope of work:

- Definition of loads and boundary conditions based on real use cases
- Assignment of material properties
- Finite Element Analysis (FEA) for stress and deformation evaluation
- Identification of critical zones (stress concentration areas)
- Design validation and, if required, proposal of geometry improvements

The simulations were used to support design decisions and ensure structural reliability before manufacturing.

This project demonstrates the ability to go beyond modeling, incorporating engineering validation into the design process.

Structural Simulation (FEA)

Structural analysis and static simulation (FEA) of mechanical components to verify strength, deformation, and safety under working conditions.

This work includes the evaluation of parts subjected to mechanical loads, ensuring that stresses and displacements remain within allowable limits of the selected materials.

Scope of work:

- Definition of loads and boundary conditions based on real use cases
- Assignment of material properties
- Finite Element Analysis (FEA) for stress and deformation evaluation
- Identification of critical zones (stress concentration areas)
- Design validation and, if required, proposal of geometry improvements

The simulations were used to support design decisions and ensure structural reliability before manufacturing.

This project demonstrates the ability to go beyond modeling, incorporating engineering validation into the design process.

Structural Simulation (FEA)

Structural analysis and static simulation (FEA) of mechanical components to verify strength, deformation, and safety under working conditions.

This work includes the evaluation of parts subjected to mechanical loads, ensuring that stresses and displacements remain within allowable limits of the selected materials.

Scope of work:

- Definition of loads and boundary conditions based on real use cases
- Assignment of material properties
- Finite Element Analysis (FEA) for stress and deformation evaluation
- Identification of critical zones (stress concentration areas)
- Design validation and, if required, proposal of geometry improvements

The simulations were used to support design decisions and ensure structural reliability before manufacturing.

This project demonstrates the ability to go beyond modeling, incorporating engineering validation into the design process.

Structural Simulation (FEA)

Structural analysis and static simulation (FEA) of mechanical components to verify strength, deformation, and safety under working conditions.

This work includes the evaluation of parts subjected to mechanical loads, ensuring that stresses and displacements remain within allowable limits of the selected materials.

Scope of work:

- Definition of loads and boundary conditions based on real use cases
- Assignment of material properties
- Finite Element Analysis (FEA) for stress and deformation evaluation
- Identification of critical zones (stress concentration areas)
- Design validation and, if required, proposal of geometry improvements

The simulations were used to support design decisions and ensure structural reliability before manufacturing.

This project demonstrates the ability to go beyond modeling, incorporating engineering validation into the design process.

Structural Simulation (FEA)

Structural analysis and static simulation (FEA) of mechanical components to verify strength, deformation, and safety under working conditions.

This work includes the evaluation of parts subjected to mechanical loads, ensuring that stresses and displacements remain within allowable limits of the selected materials.

Scope of work:

- Definition of loads and boundary conditions based on real use cases
- Assignment of material properties
- Finite Element Analysis (FEA) for stress and deformation evaluation
- Identification of critical zones (stress concentration areas)
- Design validation and, if required, proposal of geometry improvements

The simulations were used to support design decisions and ensure structural reliability before manufacturing.

This project demonstrates the ability to go beyond modeling, incorporating engineering validation into the design process.

Structural Simulation (FEA)

Structural analysis and static simulation (FEA) of mechanical components to verify strength, deformation, and safety under working conditions.

This work includes the evaluation of parts subjected to mechanical loads, ensuring that stresses and displacements remain within allowable limits of the selected materials.

Scope of work:

- Definition of loads and boundary conditions based on real use cases
- Assignment of material properties
- Finite Element Analysis (FEA) for stress and deformation evaluation
- Identification of critical zones (stress concentration areas)
- Design validation and, if required, proposal of geometry improvements

The simulations were used to support design decisions and ensure structural reliability before manufacturing.

This project demonstrates the ability to go beyond modeling, incorporating engineering validation into the design process.

Structural Simulation (FEA)

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

This project includes the development of multiple mechanical parts and assemblies designed for operation in demanding outdoor conditions. The design process involved functional criteria such as structural strength, material optimization, and ease of manufacturing.

Scope of work:

3D modeling of mechanical components and assemblies
Design of parts exposed to load and environmental conditions
Preparation of technical drawings for manufacturing
Dimensional verification and design adjustments

The models were developed using CAD software, ensuring accuracy, proper tolerances, and real-world applicability.

This work reflects experience in practical mechanical design, not just conceptual modeling.

Mechanical design

This project includes the development of multiple mechanical parts and assemblies designed for operation in demanding outdoor conditions. The design process involved functional criteria such as structural strength, material optimization, and ease of manufacturing.

Scope of work:

3D modeling of mechanical components and assemblies
Design of parts exposed to load and environmental conditions
Preparation of technical drawings for manufacturing
Dimensional verification and design adjustments

The models were developed using CAD software, ensuring accuracy, proper tolerances, and real-world applicability.

This work reflects experience in practical mechanical design, not just conceptual modeling.

Mechanical design

This project includes the development of multiple mechanical parts and assemblies designed for operation in demanding outdoor conditions. The design process involved functional criteria such as structural strength, material optimization, and ease of manufacturing.

Scope of work:

3D modeling of mechanical components and assemblies
Design of parts exposed to load and environmental conditions
Preparation of technical drawings for manufacturing
Dimensional verification and design adjustments

The models were developed using CAD software, ensuring accuracy, proper tolerances, and real-world applicability.

This work reflects experience in practical mechanical design, not just conceptual modeling.

Mechanical design

This project includes the development of multiple mechanical parts and assemblies designed for operation in demanding outdoor conditions. The design process involved functional criteria such as structural strength, material optimization, and ease of manufacturing.

Scope of work:

3D modeling of mechanical components and assemblies
Design of parts exposed to load and environmental conditions
Preparation of technical drawings for manufacturing
Dimensional verification and design adjustments

The models were developed using CAD software, ensuring accuracy, proper tolerances, and real-world applicability.

This work reflects experience in practical mechanical design, not just conceptual modeling.

Mechanical design

This project includes the development of multiple mechanical parts and assemblies designed for operation in demanding outdoor conditions. The design process involved functional criteria such as structural strength, material optimization, and ease of manufacturing.

Scope of work:

3D modeling of mechanical components and assemblies
Design of parts exposed to load and environmental conditions
Preparation of technical drawings for manufacturing
Dimensional verification and design adjustments

The models were developed using CAD software, ensuring accuracy, proper tolerances, and real-world applicability.

This work reflects experience in practical mechanical design, not just conceptual modeling.

Mechanical design

This project includes the development of multiple mechanical parts and assemblies designed for operation in demanding outdoor conditions. The design process involved functional criteria such as structural strength, material optimization, and ease of manufacturing.

Scope of work:

3D modeling of mechanical components and assemblies
Design of parts exposed to load and environmental conditions
Preparation of technical drawings for manufacturing
Dimensional verification and design adjustments

The models were developed using CAD software, ensuring accuracy, proper tolerances, and real-world applicability.

This work reflects experience in practical mechanical design, not just conceptual modeling.

Mechanical design

This project includes the development of multiple mechanical parts and assemblies designed for operation in demanding outdoor conditions. The design process involved functional criteria such as structural strength, material optimization, and ease of manufacturing.

Scope of work:

3D modeling of mechanical components and assemblies
Design of parts exposed to load and environmental conditions
Preparation of technical drawings for manufacturing
Dimensional verification and design adjustments

The models were developed using CAD software, ensuring accuracy, proper tolerances, and real-world applicability.

This work reflects experience in practical mechanical design, not just conceptual modeling.

Mechanical design

This project includes the development of multiple mechanical parts and assemblies designed for operation in demanding outdoor conditions. The design process involved functional criteria such as structural strength, material optimization, and ease of manufacturing.

Scope of work:

3D modeling of mechanical components and assemblies
Design of parts exposed to load and environmental conditions
Preparation of technical drawings for manufacturing
Dimensional verification and design adjustments

The models were developed using CAD software, ensuring accuracy, proper tolerances, and real-world applicability.

This work reflects experience in practical mechanical design, not just conceptual modeling.

Mechanical design

Optimization and dimensional adjustment of a 3D printed electronic housing, focused on improving airflow, manufacturability, and structural consistency.

The project involved modifying an existing .STEP model to meet updated dimensional requirements while preserving functionality and ensuring compatibility with internal components.

Key aspects of the work:

* Adjustment of overall dimensions to meet specific design constraints
* Redesign of ventilation patterns to improve airflow and thermal performance
* Optimization of perforation geometry for uniform distribution and printability
* Modification of internal mounting features (pads, holes, and alignments)
* Correction of wall continuity and structural details to ensure proper 3D printing results
* Alignment of fastening features between housing and cover

Special attention was given to maintaining geometric consistency and ensuring that all modifications remained compatible with manufacturing processes, particularly 3D printing.

Thi

3D Printed Electronics Enclosure

Optimization and dimensional adjustment of a 3D printed electronic housing, focused on improving airflow, manufacturability, and structural consistency.

The project involved modifying an existing .STEP model to meet updated dimensional requirements while preserving functionality and ensuring compatibility with internal components.

Key aspects of the work:

* Adjustment of overall dimensions to meet specific design constraints
* Redesign of ventilation patterns to improve airflow and thermal performance
* Optimization of perforation geometry for uniform distribution and printability
* Modification of internal mounting features (pads, holes, and alignments)
* Correction of wall continuity and structural details to ensure proper 3D printing results
* Alignment of fastening features between housing and cover

Special attention was given to maintaining geometric consistency and ensuring that all modifications remained compatible with manufacturing processes, particularly 3D printing.

Thi

3D Printed Electronics Enclosure

Optimization and dimensional adjustment of a 3D printed electronic housing, focused on improving airflow, manufacturability, and structural consistency.

The project involved modifying an existing .STEP model to meet updated dimensional requirements while preserving functionality and ensuring compatibility with internal components.

Key aspects of the work:

* Adjustment of overall dimensions to meet specific design constraints
* Redesign of ventilation patterns to improve airflow and thermal performance
* Optimization of perforation geometry for uniform distribution and printability
* Modification of internal mounting features (pads, holes, and alignments)
* Correction of wall continuity and structural details to ensure proper 3D printing results
* Alignment of fastening features between housing and cover

Special attention was given to maintaining geometric consistency and ensuring that all modifications remained compatible with manufacturing processes, particularly 3D printing.

Thi

3D Printed Electronics Enclosure

Optimization and dimensional adjustment of a 3D printed electronic housing, focused on improving airflow, manufacturability, and structural consistency.

The project involved modifying an existing .STEP model to meet updated dimensional requirements while preserving functionality and ensuring compatibility with internal components.

Key aspects of the work:

* Adjustment of overall dimensions to meet specific design constraints
* Redesign of ventilation patterns to improve airflow and thermal performance
* Optimization of perforation geometry for uniform distribution and printability
* Modification of internal mounting features (pads, holes, and alignments)
* Correction of wall continuity and structural details to ensure proper 3D printing results
* Alignment of fastening features between housing and cover

Special attention was given to maintaining geometric consistency and ensuring that all modifications remained compatible with manufacturing processes, particularly 3D printing.

Thi

3D Printed Electronics Enclosure

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Collection of mechanical parts designed and modeled for various engineering projects.

This portfolio includes a range of components developed for different applications, demonstrating versatility in mechanical design and CAD modeling. The work covers parts with different functions, geometries, and design requirements.

Scope of work:

* 3D modeling of custom mechanical components
* Design based on functional and manufacturing criteria
* Adaptation of parts to specific project requirements
* Preparation of models suitable for fabrication or further development

The designs reflect practical engineering experience, focusing on accuracy, usability, and real-world application rather than purely conceptual modeling.

This collection highlights the ability to handle diverse mechanical design tasks across multiple projects.

Mechanical Parts

Structural analysis and static simulation (FEA) of mechanical components to verify strength, deformation, and safety under working conditions.

This work includes the evaluation of parts subjected to mechanical loads, ensuring that stresses and displacements remain within allowable limits of the selected materials.

Scope of work:

- Definition of loads and boundary conditions based on real use cases
- Assignment of material properties
- Finite Element Analysis (FEA) for stress and deformation evaluation
- Identification of critical zones (stress concentration areas)
- Design validation and, if required, proposal of geometry improvements

The simulations were used to support design decisions and ensure structural reliability before manufacturing.

This project demonstrates the ability to go beyond modeling, incorporating engineering validation into the design process.

Structural Simulation (FEA)

Structural analysis and static simulation (FEA) of mechanical components to verify strength, deformation, and safety under working conditions.

This work includes the evaluation of parts subjected to mechanical loads, ensuring that stresses and displacements remain within allowable limits of the selected materials.

Scope of work:

- Definition of loads and boundary conditions based on real use cases
- Assignment of material properties
- Finite Element Analysis (FEA) for stress and deformation evaluation
- Identification of critical zones (stress concentration areas)
- Design validation and, if required, proposal of geometry improvements

The simulations were used to support design decisions and ensure structural reliability before manufacturing.

This project demonstrates the ability to go beyond modeling, incorporating engineering validation into the design process.

Structural Simulation (FEA)

Structural analysis and static simulation (FEA) of mechanical components to verify strength, deformation, and safety under working conditions.

This work includes the evaluation of parts subjected to mechanical loads, ensuring that stresses and displacements remain within allowable limits of the selected materials.

Scope of work:

- Definition of loads and boundary conditions based on real use cases
- Assignment of material properties
- Finite Element Analysis (FEA) for stress and deformation evaluation
- Identification of critical zones (stress concentration areas)
- Design validation and, if required, proposal of geometry improvements

The simulations were used to support design decisions and ensure structural reliability before manufacturing.

This project demonstrates the ability to go beyond modeling, incorporating engineering validation into the design process.

Structural Simulation (FEA)

Structural analysis and static simulation (FEA) of mechanical components to verify strength, deformation, and safety under working conditions.

This work includes the evaluation of parts subjected to mechanical loads, ensuring that stresses and displacements remain within allowable limits of the selected materials.

Scope of work:

- Definition of loads and boundary conditions based on real use cases
- Assignment of material properties
- Finite Element Analysis (FEA) for stress and deformation evaluation
- Identification of critical zones (stress concentration areas)
- Design validation and, if required, proposal of geometry improvements

The simulations were used to support design decisions and ensure structural reliability before manufacturing.

This project demonstrates the ability to go beyond modeling, incorporating engineering validation into the design process.

Structural Simulation (FEA)

Structural analysis and static simulation (FEA) of mechanical components to verify strength, deformation, and safety under working conditions.

This work includes the evaluation of parts subjected to mechanical loads, ensuring that stresses and displacements remain within allowable limits of the selected materials.

Scope of work:

- Definition of loads and boundary conditions based on real use cases
- Assignment of material properties
- Finite Element Analysis (FEA) for stress and deformation evaluation
- Identification of critical zones (stress concentration areas)
- Design validation and, if required, proposal of geometry improvements

The simulations were used to support design decisions and ensure structural reliability before manufacturing.

This project demonstrates the ability to go beyond modeling, incorporating engineering validation into the design process.

Structural Simulation (FEA)

Structural analysis and static simulation (FEA) of mechanical components to verify strength, deformation, and safety under working conditions.

This work includes the evaluation of parts subjected to mechanical loads, ensuring that stresses and displacements remain within allowable limits of the selected materials.

Scope of work:

- Definition of loads and boundary conditions based on real use cases
- Assignment of material properties
- Finite Element Analysis (FEA) for stress and deformation evaluation
- Identification of critical zones (stress concentration areas)
- Design validation and, if required, proposal of geometry improvements

The simulations were used to support design decisions and ensure structural reliability before manufacturing.

This project demonstrates the ability to go beyond modeling, incorporating engineering validation into the design process.

Structural Simulation (FEA)

Structural analysis and static simulation (FEA) of mechanical components to verify strength, deformation, and safety under working conditions.

This work includes the evaluation of parts subjected to mechanical loads, ensuring that stresses and displacements remain within allowable limits of the selected materials.

Scope of work:

- Definition of loads and boundary conditions based on real use cases
- Assignment of material properties
- Finite Element Analysis (FEA) for stress and deformation evaluation
- Identification of critical zones (stress concentration areas)
- Design validation and, if required, proposal of geometry improvements

The simulations were used to support design decisions and ensure structural reliability before manufacturing.

This project demonstrates the ability to go beyond modeling, incorporating engineering validation into the design process.

Structural Simulation (FEA)

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

Design and 3D modeling of a protective enclosure system for an S-type load cell used in a crane weighing application, including an additional housing for an Arduino-based control unit.

The project involved the development of mechanical components to ensure proper load transmission, protection of sensitive elements, and reliable operation in industrial conditions.

Scope of work:

Design of a structural case for an S-type load cell, considering load paths and mechanical constraints
Development of a protective enclosure for Arduino-based electronics
Integration of mechanical and electronic components within the system
Consideration of assembly, accessibility, and durability
Preparation of 3D models and technical details for manufacturing

The design prioritizes mechanical integrity, component protection, and practical implementation in real-world lifting and weighing operations.

This project demonstrates experience in mechatronic integration and functional mechanical design.

Load Cell & Arduino Project

This project includes the development of multiple mechanical parts and assemblies designed for operation in demanding outdoor conditions. The design process involved functional criteria such as structural strength, material optimization, and ease of manufacturing.

Scope of work:

3D modeling of mechanical components and assemblies
Design of parts exposed to load and environmental conditions
Preparation of technical drawings for manufacturing
Dimensional verification and design adjustments

The models were developed using CAD software, ensuring accuracy, proper tolerances, and real-world applicability.

This work reflects experience in practical mechanical design, not just conceptual modeling.

Mechanical design

This project includes the development of multiple mechanical parts and assemblies designed for operation in demanding outdoor conditions. The design process involved functional criteria such as structural strength, material optimization, and ease of manufacturing.

Scope of work:

3D modeling of mechanical components and assemblies
Design of parts exposed to load and environmental conditions
Preparation of technical drawings for manufacturing
Dimensional verification and design adjustments

The models were developed using CAD software, ensuring accuracy, proper tolerances, and real-world applicability.

This work reflects experience in practical mechanical design, not just conceptual modeling.

Mechanical design

This project includes the development of multiple mechanical parts and assemblies designed for operation in demanding outdoor conditions. The design process involved functional criteria such as structural strength, material optimization, and ease of manufacturing.

Scope of work:

3D modeling of mechanical components and assemblies
Design of parts exposed to load and environmental conditions
Preparation of technical drawings for manufacturing
Dimensional verification and design adjustments

The models were developed using CAD software, ensuring accuracy, proper tolerances, and real-world applicability.

This work reflects experience in practical mechanical design, not just conceptual modeling.

Mechanical design

This project includes the development of multiple mechanical parts and assemblies designed for operation in demanding outdoor conditions. The design process involved functional criteria such as structural strength, material optimization, and ease of manufacturing.

Scope of work:

3D modeling of mechanical components and assemblies
Design of parts exposed to load and environmental conditions
Preparation of technical drawings for manufacturing
Dimensional verification and design adjustments

The models were developed using CAD software, ensuring accuracy, proper tolerances, and real-world applicability.

This work reflects experience in practical mechanical design, not just conceptual modeling.

Mechanical design

This project includes the development of multiple mechanical parts and assemblies designed for operation in demanding outdoor conditions. The design process involved functional criteria such as structural strength, material optimization, and ease of manufacturing.

Scope of work:

3D modeling of mechanical components and assemblies
Design of parts exposed to load and environmental conditions
Preparation of technical drawings for manufacturing
Dimensional verification and design adjustments

The models were developed using CAD software, ensuring accuracy, proper tolerances, and real-world applicability.

This work reflects experience in practical mechanical design, not just conceptual modeling.

Mechanical design

This project includes the development of multiple mechanical parts and assemblies designed for operation in demanding outdoor conditions. The design process involved functional criteria such as structural strength, material optimization, and ease of manufacturing.

Scope of work:

3D modeling of mechanical components and assemblies
Design of parts exposed to load and environmental conditions
Preparation of technical drawings for manufacturing
Dimensional verification and design adjustments

The models were developed using CAD software, ensuring accuracy, proper tolerances, and real-world applicability.

This work reflects experience in practical mechanical design, not just conceptual modeling.

Mechanical design

This project includes the development of multiple mechanical parts and assemblies designed for operation in demanding outdoor conditions. The design process involved functional criteria such as structural strength, material optimization, and ease of manufacturing.

Scope of work:

3D modeling of mechanical components and assemblies
Design of parts exposed to load and environmental conditions
Preparation of technical drawings for manufacturing
Dimensional verification and design adjustments

The models were developed using CAD software, ensuring accuracy, proper tolerances, and real-world applicability.

This work reflects experience in practical mechanical design, not just conceptual modeling.

Mechanical design

This project includes the development of multiple mechanical parts and assemblies designed for operation in demanding outdoor conditions. The design process involved functional criteria such as structural strength, material optimization, and ease of manufacturing.

Scope of work:

3D modeling of mechanical components and assemblies
Design of parts exposed to load and environmental conditions
Preparation of technical drawings for manufacturing
Dimensional verification and design adjustments

The models were developed using CAD software, ensuring accuracy, proper tolerances, and real-world applicability.

This work reflects experience in practical mechanical design, not just conceptual modeling.

Mechanical design

5.0 · 2 Reviews

2 Reviews

Modelado 3D Técnico de Equipo Industrial

Tan pronto le envié los archivos y le expliqué la tarea, lo entendió todo. El trabajo fue excelente y en menos tiempo de lo pautado. Muy profesional, volvería a trabajar con él.

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Precise STEP Model Dimension Adjustments

This freelancer is amazing. He went above and beyond to deliver the finished product that I imagined. The work was completed ahead of schedule and everything was perfect. I won't even shop around next time, Yohans Kevin T. is who I want to work with and I highly recommend you reach out to him with your projects as well. Thanks a ton!

+3 more

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