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$3 USD / hour
Flag of VIETNAM
ho chi minh, vietnam
$3 USD / hour
It's currently 7:17 PM here
Joined August 18, 2015
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Bo D.

@phucborso1

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$3 USD / hour
Flag of VIETNAM
ho chi minh, vietnam
$3 USD / hour
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Mechanical Engineer

My name is Bo Do. I am currently a CAD engineer at a global company. My job is to redesign products per customer requirements. I am redesigning or designing automation systems for testing, assembling products related to high-tech products on market like smart phones, tablets... My company also has business with customers from semiconductor industry. Our customers require short time delivery and highest quality for every single products we manufacture. I can work under high pressure for those demands. Sometimes I work late at night to early morning for completing design. Sometimes I work on site to communicate directly to customers and acquire info from their production lines for better designs. Please contact me if you are interesting in working with me.
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Portfolio

3040673
These are some frames I have designed over my projects
Frame design
These are some frames I have designed over my projects
Frame design
These are some frames I have designed over my projects
Frame design
These are some frames I have designed over my projects
Frame design
These are some frames I have designed over my projects
Frame design
3037704
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
3037434
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
3033320
This is a project about modeling complex part and generating NC code using a CAD/CAM software. Project Scope 1. Select a CAD to model 3D, show step-by-step modeling: a. What commands? b. Part Dimensions? c. Fillets, chamfers dimensions? d. Extrude, cut-extrude? 2. Select how to machine faces: a. Numbering faces (face 1, face 2…) and show how to locate and clamp part for machining faces. b. Choose manufacturing process. c. Select cutting tools. d. Setting cutting parameters. e. Report. 3. Select a CAM software: a. Create manufacturing model (place part and raw material onto software environment). b. Setting manufacturing process parameters (select machine, clamping, coordinate, feed cutting tool) c. Setting manufacturing process. d. Cutting tool simulation. e. NC code generation.
Generating NC code using a CAD/CAM software
This is a project about modeling complex part and generating NC code using a CAD/CAM software. Project Scope 1. Select a CAD to model 3D, show step-by-step modeling: a. What commands? b. Part Dimensions? c. Fillets, chamfers dimensions? d. Extrude, cut-extrude? 2. Select how to machine faces: a. Numbering faces (face 1, face 2…) and show how to locate and clamp part for machining faces. b. Choose manufacturing process. c. Select cutting tools. d. Setting cutting parameters. e. Report. 3. Select a CAM software: a. Create manufacturing model (place part and raw material onto software environment). b. Setting manufacturing process parameters (select machine, clamping, coordinate, feed cutting tool) c. Setting manufacturing process. d. Cutting tool simulation. e. NC code generation.
Generating NC code using a CAD/CAM software
This is a project about modeling complex part and generating NC code using a CAD/CAM software. Project Scope 1. Select a CAD to model 3D, show step-by-step modeling: a. What commands? b. Part Dimensions? c. Fillets, chamfers dimensions? d. Extrude, cut-extrude? 2. Select how to machine faces: a. Numbering faces (face 1, face 2…) and show how to locate and clamp part for machining faces. b. Choose manufacturing process. c. Select cutting tools. d. Setting cutting parameters. e. Report. 3. Select a CAM software: a. Create manufacturing model (place part and raw material onto software environment). b. Setting manufacturing process parameters (select machine, clamping, coordinate, feed cutting tool) c. Setting manufacturing process. d. Cutting tool simulation. e. NC code generation.
Generating NC code using a CAD/CAM software
This is a project about modeling complex part and generating NC code using a CAD/CAM software. Project Scope 1. Select a CAD to model 3D, show step-by-step modeling: a. What commands? b. Part Dimensions? c. Fillets, chamfers dimensions? d. Extrude, cut-extrude? 2. Select how to machine faces: a. Numbering faces (face 1, face 2…) and show how to locate and clamp part for machining faces. b. Choose manufacturing process. c. Select cutting tools. d. Setting cutting parameters. e. Report. 3. Select a CAM software: a. Create manufacturing model (place part and raw material onto software environment). b. Setting manufacturing process parameters (select machine, clamping, coordinate, feed cutting tool) c. Setting manufacturing process. d. Cutting tool simulation. e. NC code generation.
Generating NC code using a CAD/CAM software
This is a project about modeling complex part and generating NC code using a CAD/CAM software. Project Scope 1. Select a CAD to model 3D, show step-by-step modeling: a. What commands? b. Part Dimensions? c. Fillets, chamfers dimensions? d. Extrude, cut-extrude? 2. Select how to machine faces: a. Numbering faces (face 1, face 2…) and show how to locate and clamp part for machining faces. b. Choose manufacturing process. c. Select cutting tools. d. Setting cutting parameters. e. Report. 3. Select a CAM software: a. Create manufacturing model (place part and raw material onto software environment). b. Setting manufacturing process parameters (select machine, clamping, coordinate, feed cutting tool) c. Setting manufacturing process. d. Cutting tool simulation. e. NC code generation.
Generating NC code using a CAD/CAM software
This is a project about modeling complex part and generating NC code using a CAD/CAM software. Project Scope 1. Select a CAD to model 3D, show step-by-step modeling: a. What commands? b. Part Dimensions? c. Fillets, chamfers dimensions? d. Extrude, cut-extrude? 2. Select how to machine faces: a. Numbering faces (face 1, face 2…) and show how to locate and clamp part for machining faces. b. Choose manufacturing process. c. Select cutting tools. d. Setting cutting parameters. e. Report. 3. Select a CAM software: a. Create manufacturing model (place part and raw material onto software environment). b. Setting manufacturing process parameters (select machine, clamping, coordinate, feed cutting tool) c. Setting manufacturing process. d. Cutting tool simulation. e. NC code generation.
Generating NC code using a CAD/CAM software
This is a project about modeling complex part and generating NC code using a CAD/CAM software. Project Scope 1. Select a CAD to model 3D, show step-by-step modeling: a. What commands? b. Part Dimensions? c. Fillets, chamfers dimensions? d. Extrude, cut-extrude? 2. Select how to machine faces: a. Numbering faces (face 1, face 2…) and show how to locate and clamp part for machining faces. b. Choose manufacturing process. c. Select cutting tools. d. Setting cutting parameters. e. Report. 3. Select a CAM software: a. Create manufacturing model (place part and raw material onto software environment). b. Setting manufacturing process parameters (select machine, clamping, coordinate, feed cutting tool) c. Setting manufacturing process. d. Cutting tool simulation. e. NC code generation.
Generating NC code using a CAD/CAM software
This is a project about modeling complex part and generating NC code using a CAD/CAM software. Project Scope 1. Select a CAD to model 3D, show step-by-step modeling: a. What commands? b. Part Dimensions? c. Fillets, chamfers dimensions? d. Extrude, cut-extrude? 2. Select how to machine faces: a. Numbering faces (face 1, face 2…) and show how to locate and clamp part for machining faces. b. Choose manufacturing process. c. Select cutting tools. d. Setting cutting parameters. e. Report. 3. Select a CAM software: a. Create manufacturing model (place part and raw material onto software environment). b. Setting manufacturing process parameters (select machine, clamping, coordinate, feed cutting tool) c. Setting manufacturing process. d. Cutting tool simulation. e. NC code generation.
Generating NC code using a CAD/CAM software
3040673
These are some frames I have designed over my projects
Frame design
These are some frames I have designed over my projects
Frame design
These are some frames I have designed over my projects
Frame design
These are some frames I have designed over my projects
Frame design
These are some frames I have designed over my projects
Frame design
3037704
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
This is a 4th year project of a 4.5 year university program. My team will purchase a suitable automatic vacuum cleaner on the market and design an automatic vacuum base on the real model. Project scope: 1. Using basic measurement devices such as caliper, linear ruler to do reverse on vacuum cleaner geometry. 2. Create 3D model of the vacuum cleaner using SolidWorks. 3. Create 2D drawing for assembly. 4. Design and fabricate electronic circuits, control circuits. 5. Simulate simple movement strategies such as zigzag, spiral. 6. Programming 2 movement strategies: zigzag, spiral.
Reverse Engineering an Automatic Vacuum Cleaner.
3037434
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
This is a project was done in third year of a 4.5 year program (university degree). The project is to design a system which using mechanical transmission stages. The chosen system was an electric winch. Project scope: 1. Study electric winches in real life. How to design an electric winch. 2. Transmission stages selection. 3. Transmission-ratio distribution among the stages (gear box, belts, sprockets…), motor selection for supplying power to the system. 4. After which stages are needed and transmission ratios for each stage in being-designed electric winch are determined, do the following steps: 5. Belt selection and calculations. 6. Design gear box with transmission ratio calculated before. An old gear box already existed in the market which had a desired transmission ratio was bought. The designed gear box will have sizes the same as the real one. 7. Manufactured frame.
Design An Electric Winch
3033320
This is a project about modeling complex part and generating NC code using a CAD/CAM software. Project Scope 1. Select a CAD to model 3D, show step-by-step modeling: a. What commands? b. Part Dimensions? c. Fillets, chamfers dimensions? d. Extrude, cut-extrude? 2. Select how to machine faces: a. Numbering faces (face 1, face 2…) and show how to locate and clamp part for machining faces. b. Choose manufacturing process. c. Select cutting tools. d. Setting cutting parameters. e. Report. 3. Select a CAM software: a. Create manufacturing model (place part and raw material onto software environment). b. Setting manufacturing process parameters (select machine, clamping, coordinate, feed cutting tool) c. Setting manufacturing process. d. Cutting tool simulation. e. NC code generation.
Generating NC code using a CAD/CAM software
This is a project about modeling complex part and generating NC code using a CAD/CAM software. Project Scope 1. Select a CAD to model 3D, show step-by-step modeling: a. What commands? b. Part Dimensions? c. Fillets, chamfers dimensions? d. Extrude, cut-extrude? 2. Select how to machine faces: a. Numbering faces (face 1, face 2…) and show how to locate and clamp part for machining faces. b. Choose manufacturing process. c. Select cutting tools. d. Setting cutting parameters. e. Report. 3. Select a CAM software: a. Create manufacturing model (place part and raw material onto software environment). b. Setting manufacturing process parameters (select machine, clamping, coordinate, feed cutting tool) c. Setting manufacturing process. d. Cutting tool simulation. e. NC code generation.
Generating NC code using a CAD/CAM software
This is a project about modeling complex part and generating NC code using a CAD/CAM software. Project Scope 1. Select a CAD to model 3D, show step-by-step modeling: a. What commands? b. Part Dimensions? c. Fillets, chamfers dimensions? d. Extrude, cut-extrude? 2. Select how to machine faces: a. Numbering faces (face 1, face 2…) and show how to locate and clamp part for machining faces. b. Choose manufacturing process. c. Select cutting tools. d. Setting cutting parameters. e. Report. 3. Select a CAM software: a. Create manufacturing model (place part and raw material onto software environment). b. Setting manufacturing process parameters (select machine, clamping, coordinate, feed cutting tool) c. Setting manufacturing process. d. Cutting tool simulation. e. NC code generation.
Generating NC code using a CAD/CAM software
This is a project about modeling complex part and generating NC code using a CAD/CAM software. Project Scope 1. Select a CAD to model 3D, show step-by-step modeling: a. What commands? b. Part Dimensions? c. Fillets, chamfers dimensions? d. Extrude, cut-extrude? 2. Select how to machine faces: a. Numbering faces (face 1, face 2…) and show how to locate and clamp part for machining faces. b. Choose manufacturing process. c. Select cutting tools. d. Setting cutting parameters. e. Report. 3. Select a CAM software: a. Create manufacturing model (place part and raw material onto software environment). b. Setting manufacturing process parameters (select machine, clamping, coordinate, feed cutting tool) c. Setting manufacturing process. d. Cutting tool simulation. e. NC code generation.
Generating NC code using a CAD/CAM software
This is a project about modeling complex part and generating NC code using a CAD/CAM software. Project Scope 1. Select a CAD to model 3D, show step-by-step modeling: a. What commands? b. Part Dimensions? c. Fillets, chamfers dimensions? d. Extrude, cut-extrude? 2. Select how to machine faces: a. Numbering faces (face 1, face 2…) and show how to locate and clamp part for machining faces. b. Choose manufacturing process. c. Select cutting tools. d. Setting cutting parameters. e. Report. 3. Select a CAM software: a. Create manufacturing model (place part and raw material onto software environment). b. Setting manufacturing process parameters (select machine, clamping, coordinate, feed cutting tool) c. Setting manufacturing process. d. Cutting tool simulation. e. NC code generation.
Generating NC code using a CAD/CAM software
This is a project about modeling complex part and generating NC code using a CAD/CAM software. Project Scope 1. Select a CAD to model 3D, show step-by-step modeling: a. What commands? b. Part Dimensions? c. Fillets, chamfers dimensions? d. Extrude, cut-extrude? 2. Select how to machine faces: a. Numbering faces (face 1, face 2…) and show how to locate and clamp part for machining faces. b. Choose manufacturing process. c. Select cutting tools. d. Setting cutting parameters. e. Report. 3. Select a CAM software: a. Create manufacturing model (place part and raw material onto software environment). b. Setting manufacturing process parameters (select machine, clamping, coordinate, feed cutting tool) c. Setting manufacturing process. d. Cutting tool simulation. e. NC code generation.
Generating NC code using a CAD/CAM software
This is a project about modeling complex part and generating NC code using a CAD/CAM software. Project Scope 1. Select a CAD to model 3D, show step-by-step modeling: a. What commands? b. Part Dimensions? c. Fillets, chamfers dimensions? d. Extrude, cut-extrude? 2. Select how to machine faces: a. Numbering faces (face 1, face 2…) and show how to locate and clamp part for machining faces. b. Choose manufacturing process. c. Select cutting tools. d. Setting cutting parameters. e. Report. 3. Select a CAM software: a. Create manufacturing model (place part and raw material onto software environment). b. Setting manufacturing process parameters (select machine, clamping, coordinate, feed cutting tool) c. Setting manufacturing process. d. Cutting tool simulation. e. NC code generation.
Generating NC code using a CAD/CAM software
This is a project about modeling complex part and generating NC code using a CAD/CAM software. Project Scope 1. Select a CAD to model 3D, show step-by-step modeling: a. What commands? b. Part Dimensions? c. Fillets, chamfers dimensions? d. Extrude, cut-extrude? 2. Select how to machine faces: a. Numbering faces (face 1, face 2…) and show how to locate and clamp part for machining faces. b. Choose manufacturing process. c. Select cutting tools. d. Setting cutting parameters. e. Report. 3. Select a CAM software: a. Create manufacturing model (place part and raw material onto software environment). b. Setting manufacturing process parameters (select machine, clamping, coordinate, feed cutting tool) c. Setting manufacturing process. d. Cutting tool simulation. e. NC code generation.
Generating NC code using a CAD/CAM software

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Experience

Design Engineer

GES VN
Mar 2014 - Present
Redesign or design for adding new sub function to automated machines

Education

Bachelor Degree

Dai hoc Quôc Gia Tp. Hô Chí Minh, Vietnam 2009 - 2014
(5 years)

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Manufacturing
Solidworks
Mechanical Engineering
Mechatronics
AutoCAD

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