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$35 USD / час
Флаг PAKISTAN
rawalpindi, pakistan
$35 USD / час
Сейчас здесь 5:24 PM
На сайте с июля 17, 2018
16 Рекомендации

Muhammad Jawad R.

@jawadofficial

4,8 (42 отзывов(-а))
5,8
5,8
$35 USD / час
Флаг PAKISTAN
rawalpindi, pakistan
$35 USD / час
100 %
Завершенных работ
84 %
В рамках бюджета
100 %
Своевременно
24 %
Рейтинг повторного найма

-Aerospace Engr -CAD -FEA -Composite -CFD -ANSYS

Experienced Engineer with expertise in CAD, solving Computational Fluid Dynamics (CFD) analysis, Structural design and analysis (FEA), Composite Structures, Propulsion, Thermal, Multi-disciplinary problems, Research and Development (R&D), Aircraft design and development, Research Writing and Technical Writing. Product Design using CAD/CAM tools: SOLIDWORKS, CATIA V5, AUTODESK INVENTOR. Engineering Software Expertise: ANSYS(Fluent, Static Structural, ACP, Thermal), CATIA V5, Solidworks, Autodesk Inventor, MATLAB.
Freelancer Aerospace Engineers Pakistan

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Авторизуйтесь для обсуждения любых деталей в чате.

Элементы портфолио

Preliminary design of aircraft and spacecraft structures and to solve structural design problems with suitable material choices.
Introduction to Aerospace Structures and Materials
Certified Engineering Simulations (CFD & FEA)
https://courses.edx.org/certificates/3c6d06ada60d49cbbef4c948c5262c56
Certified Engineering Simulations (CFD & FEA) Expert
Design requirements:
1. Capable of battery-powered and remote-controlled ornithopter flight
2. Foldable wings 
3. 15 centimeters maximum wingspan
4. Accurate Night Fury dragon aesthetic (wing/tail design, all black, etc.)

Deliverables:
1. Physical micro dragon ornithopter (completed and finalized working version)
2. Design files 
3. Parts list
Design and Development of Micro Dragon Ornithopter
Design requirements:
1. Capable of battery-powered and remote-controlled ornithopter flight
2. Foldable wings 
3. 15 centimeters maximum wingspan
4. Accurate Night Fury dragon aesthetic (wing/tail design, all black, etc.)

Deliverables:
1. Physical micro dragon ornithopter (completed and finalized working version)
2. Design files 
3. Parts list
Design and Development of Micro Dragon Ornithopter
Design requirements:
1. Capable of battery-powered and remote-controlled ornithopter flight
2. Foldable wings 
3. 15 centimeters maximum wingspan
4. Accurate Night Fury dragon aesthetic (wing/tail design, all black, etc.)

Deliverables:
1. Physical micro dragon ornithopter (completed and finalized working version)
2. Design files 
3. Parts list
Design and Development of Micro Dragon Ornithopter
Design requirements:
1. Capable of battery-powered and remote-controlled ornithopter flight
2. Foldable wings 
3. 15 centimeters maximum wingspan
4. Accurate Night Fury dragon aesthetic (wing/tail design, all black, etc.)

Deliverables:
1. Physical micro dragon ornithopter (completed and finalized working version)
2. Design files 
3. Parts list
Design and Development of Micro Dragon Ornithopter
Design requirements:
1. Capable of battery-powered and remote-controlled ornithopter flight
2. Foldable wings 
3. 15 centimeters maximum wingspan
4. Accurate Night Fury dragon aesthetic (wing/tail design, all black, etc.)

Deliverables:
1. Physical micro dragon ornithopter (completed and finalized working version)
2. Design files 
3. Parts list
Design and Development of Micro Dragon Ornithopter
Design requirements:
1. Capable of battery-powered and remote-controlled ornithopter flight
2. Foldable wings 
3. 15 centimeters maximum wingspan
4. Accurate Night Fury dragon aesthetic (wing/tail design, all black, etc.)

Deliverables:
1. Physical micro dragon ornithopter (completed and finalized working version)
2. Design files 
3. Parts list
Design and Development of Micro Dragon Ornithopter
Design requirements:
1. Capable of battery-powered and remote-controlled ornithopter flight
2. Foldable wings 
3. 15 centimeters maximum wingspan
4. Accurate Night Fury dragon aesthetic (wing/tail design, all black, etc.)

Deliverables:
1. Physical micro dragon ornithopter (completed and finalized working version)
2. Design files 
3. Parts list
Design and Development of Micro Dragon Ornithopter
Design requirements:
1. Capable of battery-powered and remote-controlled ornithopter flight
2. Foldable wings 
3. 15 centimeters maximum wingspan
4. Accurate Night Fury dragon aesthetic (wing/tail design, all black, etc.)

Deliverables:
1. Physical micro dragon ornithopter (completed and finalized working version)
2. Design files 
3. Parts list
Design and Development of Micro Dragon Ornithopter
Design requirements:
1. Capable of battery-powered and remote-controlled ornithopter flight
2. Foldable wings 
3. 15 centimeters maximum wingspan
4. Accurate Night Fury dragon aesthetic (wing/tail design, all black, etc.)

Deliverables:
1. Physical micro dragon ornithopter (completed and finalized working version)
2. Design files 
3. Parts list
Design and Development of Micro Dragon Ornithopter
Design requirements:
1. Capable of battery-powered and remote-controlled ornithopter flight
2. Foldable wings 
3. 15 centimeters maximum wingspan
4. Accurate Night Fury dragon aesthetic (wing/tail design, all black, etc.)

Deliverables:
1. Physical micro dragon ornithopter (completed and finalized working version)
2. Design files 
3. Parts list
Design and Development of Micro Dragon Ornithopter
Design requirements:
1. Capable of battery-powered and remote-controlled ornithopter flight
2. Foldable wings 
3. 15 centimeters maximum wingspan
4. Accurate Night Fury dragon aesthetic (wing/tail design, all black, etc.)

Deliverables:
1. Physical micro dragon ornithopter (completed and finalized working version)
2. Design files 
3. Parts list
Design and Development of Micro Dragon Ornithopter
Static Structural Analysis of Truss Braced Wing using ANSYS software to obtain the stresses, fatigue factor of safety at 1g, -1g and 2.5 g's load for structural validation using fluid structure interface.
Static Structural Analysis of Truss Braced Wing
Static Structural Analysis of Truss Braced Wing using ANSYS software to obtain the stresses, fatigue factor of safety at 1g, -1g and 2.5 g's load for structural validation using fluid structure interface.
Static Structural Analysis of Truss Braced Wing
Static Structural Analysis of Truss Braced Wing using ANSYS software to obtain the stresses, fatigue factor of safety at 1g, -1g and 2.5 g's load for structural validation using fluid structure interface.
Static Structural Analysis of Truss Braced Wing
Static Structural Analysis of Truss Braced Wing using ANSYS software to obtain the stresses, fatigue factor of safety at 1g, -1g and 2.5 g's load for structural validation using fluid structure interface.
Static Structural Analysis of Truss Braced Wing
An experimental study was conducted on green roofs under the summer climatic conditions of Sydney, Australia to investigate the effect of green roof on the amount of heat transferred from the outside environment to the inside rooms. Conventional and Engineered designs were investigated
side by side to get a clear picture of advantages attained because of the changes made. Six cases of analysis and simulation were carried out for both conventional and engineered roof, wall and floor. Simulations reveal incredible results suggesting improvement of more than 50% in terms of blocking heat being transferred inside the building, this in turn means a decrease of more than 50% in energy needs of the building and same decrease in greenhouse emissions. The results obtained are very promising and can be implemented to get a highly energy efficient building.
Zero Energy Building Design and Thermal Analysis
An experimental study was conducted on green roofs under the summer climatic conditions of Sydney, Australia to investigate the effect of green roof on the amount of heat transferred from the outside environment to the inside rooms. Conventional and Engineered designs were investigated
side by side to get a clear picture of advantages attained because of the changes made. Six cases of analysis and simulation were carried out for both conventional and engineered roof, wall and floor. Simulations reveal incredible results suggesting improvement of more than 50% in terms of blocking heat being transferred inside the building, this in turn means a decrease of more than 50% in energy needs of the building and same decrease in greenhouse emissions. The results obtained are very promising and can be implemented to get a highly energy efficient building.
Zero Energy Building Design and Thermal Analysis
An experimental study was conducted on green roofs under the summer climatic conditions of Sydney, Australia to investigate the effect of green roof on the amount of heat transferred from the outside environment to the inside rooms. Conventional and Engineered designs were investigated
side by side to get a clear picture of advantages attained because of the changes made. Six cases of analysis and simulation were carried out for both conventional and engineered roof, wall and floor. Simulations reveal incredible results suggesting improvement of more than 50% in terms of blocking heat being transferred inside the building, this in turn means a decrease of more than 50% in energy needs of the building and same decrease in greenhouse emissions. The results obtained are very promising and can be implemented to get a highly energy efficient building.
Zero Energy Building Design and Thermal Analysis
An experimental study was conducted on green roofs under the summer climatic conditions of Sydney, Australia to investigate the effect of green roof on the amount of heat transferred from the outside environment to the inside rooms. Conventional and Engineered designs were investigated
side by side to get a clear picture of advantages attained because of the changes made. Six cases of analysis and simulation were carried out for both conventional and engineered roof, wall and floor. Simulations reveal incredible results suggesting improvement of more than 50% in terms of blocking heat being transferred inside the building, this in turn means a decrease of more than 50% in energy needs of the building and same decrease in greenhouse emissions. The results obtained are very promising and can be implemented to get a highly energy efficient building.
Zero Energy Building Design and Thermal Analysis
An experimental study was conducted on green roofs under the summer climatic conditions of Sydney, Australia to investigate the effect of green roof on the amount of heat transferred from the outside environment to the inside rooms. Conventional and Engineered designs were investigated
side by side to get a clear picture of advantages attained because of the changes made. Six cases of analysis and simulation were carried out for both conventional and engineered roof, wall and floor. Simulations reveal incredible results suggesting improvement of more than 50% in terms of blocking heat being transferred inside the building, this in turn means a decrease of more than 50% in energy needs of the building and same decrease in greenhouse emissions. The results obtained are very promising and can be implemented to get a highly energy efficient building.
Zero Energy Building Design and Thermal Analysis
An experimental study was conducted on green roofs under the summer climatic conditions of Sydney, Australia to investigate the effect of green roof on the amount of heat transferred from the outside environment to the inside rooms. Conventional and Engineered designs were investigated
side by side to get a clear picture of advantages attained because of the changes made. Six cases of analysis and simulation were carried out for both conventional and engineered roof, wall and floor. Simulations reveal incredible results suggesting improvement of more than 50% in terms of blocking heat being transferred inside the building, this in turn means a decrease of more than 50% in energy needs of the building and same decrease in greenhouse emissions. The results obtained are very promising and can be implemented to get a highly energy efficient building.
Zero Energy Building Design and Thermal Analysis
An experimental study was conducted on green roofs under the summer climatic conditions of Sydney, Australia to investigate the effect of green roof on the amount of heat transferred from the outside environment to the inside rooms. Conventional and Engineered designs were investigated
side by side to get a clear picture of advantages attained because of the changes made. Six cases of analysis and simulation were carried out for both conventional and engineered roof, wall and floor. Simulations reveal incredible results suggesting improvement of more than 50% in terms of blocking heat being transferred inside the building, this in turn means a decrease of more than 50% in energy needs of the building and same decrease in greenhouse emissions. The results obtained are very promising and can be implemented to get a highly energy efficient building.
Zero Energy Building Design and Thermal Analysis
An experimental study was conducted on green roofs under the summer climatic conditions of Sydney, Australia to investigate the effect of green roof on the amount of heat transferred from the outside environment to the inside rooms. Conventional and Engineered designs were investigated
side by side to get a clear picture of advantages attained because of the changes made. Six cases of analysis and simulation were carried out for both conventional and engineered roof, wall and floor. Simulations reveal incredible results suggesting improvement of more than 50% in terms of blocking heat being transferred inside the building, this in turn means a decrease of more than 50% in energy needs of the building and same decrease in greenhouse emissions. The results obtained are very promising and can be implemented to get a highly energy efficient building.
Zero Energy Building Design and Thermal Analysis
An experimental study was conducted on green roofs under the summer climatic conditions of Sydney, Australia to investigate the effect of green roof on the amount of heat transferred from the outside environment to the inside rooms. Conventional and Engineered designs were investigated
side by side to get a clear picture of advantages attained because of the changes made. Six cases of analysis and simulation were carried out for both conventional and engineered roof, wall and floor. Simulations reveal incredible results suggesting improvement of more than 50% in terms of blocking heat being transferred inside the building, this in turn means a decrease of more than 50% in energy needs of the building and same decrease in greenhouse emissions. The results obtained are very promising and can be implemented to get a highly energy efficient building.
Zero Energy Building Design and Thermal Analysis
An experimental study was conducted on green roofs under the summer climatic conditions of Sydney, Australia to investigate the effect of green roof on the amount of heat transferred from the outside environment to the inside rooms. Conventional and Engineered designs were investigated
side by side to get a clear picture of advantages attained because of the changes made. Six cases of analysis and simulation were carried out for both conventional and engineered roof, wall and floor. Simulations reveal incredible results suggesting improvement of more than 50% in terms of blocking heat being transferred inside the building, this in turn means a decrease of more than 50% in energy needs of the building and same decrease in greenhouse emissions. The results obtained are very promising and can be implemented to get a highly energy efficient building.
Zero Energy Building Design and Thermal Analysis
To come up with a design which includes truss supports for a a bridge that is 200ft long, which will be subjected to a load of four trucks that each carry a payload in a trailer that weights 8,000lbs and 64,000 lbs respectively, and supports a total distributed load of the road of 1,500 lbs/ft.• The main objective is to ensure that there is not any significant deflections as well as ensuring stress levels are within the specifications of the material.• The primary concerns are due to the maximum deflection of the beam that supports the total weight as well as the maximum stress levels that such experiences.
Truss Bridge Design and Finite Element Analysis
To come up with a design which includes truss supports for a a bridge that is 200ft long, which will be subjected to a load of four trucks that each carry a payload in a trailer that weights 8,000lbs and 64,000 lbs respectively, and supports a total distributed load of the road of 1,500 lbs/ft.• The main objective is to ensure that there is not any significant deflections as well as ensuring stress levels are within the specifications of the material.• The primary concerns are due to the maximum deflection of the beam that supports the total weight as well as the maximum stress levels that such experiences.
Truss Bridge Design and Finite Element Analysis
To come up with a design which includes truss supports for a a bridge that is 200ft long, which will be subjected to a load of four trucks that each carry a payload in a trailer that weights 8,000lbs and 64,000 lbs respectively, and supports a total distributed load of the road of 1,500 lbs/ft.• The main objective is to ensure that there is not any significant deflections as well as ensuring stress levels are within the specifications of the material.• The primary concerns are due to the maximum deflection of the beam that supports the total weight as well as the maximum stress levels that such experiences.
Truss Bridge Design and Finite Element Analysis
To come up with a design which includes truss supports for a a bridge that is 200ft long, which will be subjected to a load of four trucks that each carry a payload in a trailer that weights 8,000lbs and 64,000 lbs respectively, and supports a total distributed load of the road of 1,500 lbs/ft.• The main objective is to ensure that there is not any significant deflections as well as ensuring stress levels are within the specifications of the material.• The primary concerns are due to the maximum deflection of the beam that supports the total weight as well as the maximum stress levels that such experiences.
Truss Bridge Design and Finite Element Analysis

Отзывы

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Показаны с 1 по 5 из 42 отзывов
Фильтровать отзывы по: 5,0
€100,00 EUR
No remarks, great recommendation, great delivered work! Highly recommended
Engineering Solidworks Mechanical Engineering Finite Element Analysis
+ еще 1
Аватарка пользователя
Флаг Claudio B. @claudioboone
2 года назад
4,8
€1 060,00 EUR
Good work! Once again!
Engineering Research Article Writing Aerospace Engineering
+ еще 1
Аватарка пользователя
Флаг Claudio B. @claudioboone
2 года назад
5,0
€250,00 EUR
Excellent work delivered! The communication was perfect, regular updates were given.. Just an allround experience! Thanks Muhammad and team! Highly recommended!
Mechanical Engineering Civil Engineering Aeronautical Engineering Aerospace Engineering
Аватарка пользователя
Флаг Claudio B. @claudioboone
2 года назад
4,2
$55,00 USD
delivered on time....!
Engineering Mechanical Engineering Electrical Engineering Chemical Engineering Research Writing
Аватарка пользователя
Флаг Dmes S. @Dmesstudent
2 года назад
5,0
£235,00 GBP
Best aviation/aerospace engineer around. Very professional and experienced engineer.
Matlab and Mathematica CAD/CAM Mechanical Engineering Finite Element Analysis
+ еще 1
M
Флаг Malcolm H. @MalcolmH4
2 года назад

Образование

Introduction to Aerospace Structures and Materials

Technische Universiteit Delft, Netherlands 2022 - 2023
(1 год)

ENGR2000X: A Hands-on Introduction to Engineering Simulations

Cornell University, United States 2022
(Менее 1 года)

BS Aerospace Engineering

Institute of Space Technology , Pakistan 2014 - 2018
(4 года)

Квалификация

Aerospace Engineering

PEC
2018
BS Aerospace Engineering

Свяжитесь с Muhammad Jawad R. по поводу вашей работы

Авторизуйтесь для обсуждения любых деталей в чате.

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