Remote
Work location
Stacker mobile belt conveyor design Ended
About the job
To take my initial stacker drawing and develop final detailed drawings suitable for a workshop to construct the stacker, you can follow these key steps:
1. Review and Validate the Concept Design
Assess Feasibility: Review your existing drawing to ensure it meets functional and operational requirements, such as:
Load capacity (belt, material, and structure).
Belt speed, incline angle, and length.
Stability, weight distribution, and mobility.
Compliance Check: Verify that the design complies with standards (e.g., ISO, ASTM, or CE).
Initial Structural Calculations: Confirm the design can handle static and dynamic loads without failure. Use software like STAAD.Pro, SAP2000, or SolidWorks Simulation.
2. 3D Modeling of the Stacker
Use CAD software like AutoCAD, SolidWorks, or Inventor to develop a detailed 3D model:
Create assemblies: Conveyor frame, belt system, rollers, wheels/tracks, drive mechanism, and hydraulic/electrical systems.
Include tolerances, materials, and connection details.
Simulation/Analysis: Run finite element analysis (FEA) to validate the structural integrity under:
Load and stress.
Wind forces and dynamic movement.
3. Break Down the Model into Components
Divide the model into individual parts/components, including:
Frame: Steel sections (I-beams, box sections, etc.).
Belt System: Drive drums, idlers, rollers, pulleys.
Support Structure: Legs, outriggers, stabilizers.
Hydraulic/Electrical Mechanisms: Motors, actuators, or control panels.... read more
1. Review and Validate the Concept Design
Assess Feasibility: Review your existing drawing to ensure it meets functional and operational requirements, such as:
Load capacity (belt, material, and structure).
Belt speed, incline angle, and length.
Stability, weight distribution, and mobility.
Compliance Check: Verify that the design complies with standards (e.g., ISO, ASTM, or CE).
Initial Structural Calculations: Confirm the design can handle static and dynamic loads without failure. Use software like STAAD.Pro, SAP2000, or SolidWorks Simulation.
2. 3D Modeling of the Stacker
Use CAD software like AutoCAD, SolidWorks, or Inventor to develop a detailed 3D model:
Create assemblies: Conveyor frame, belt system, rollers, wheels/tracks, drive mechanism, and hydraulic/electrical systems.
Include tolerances, materials, and connection details.
Simulation/Analysis: Run finite element analysis (FEA) to validate the structural integrity under:
Load and stress.
Wind forces and dynamic movement.
3. Break Down the Model into Components
Divide the model into individual parts/components, including:
Frame: Steel sections (I-beams, box sections, etc.).
Belt System: Drive drums, idlers, rollers, pulleys.
Support Structure: Legs, outriggers, stabilizers.
Hydraulic/Electrical Mechanisms: Motors, actuators, or control panels.... read more
To take my initial stacker drawing and develop final detailed drawings suitable for a workshop to construct the stacker, you can follow these key steps:
1. Review and Validate the Concept Design
Assess Feasibility: Review your existing drawing to ensure it meets functional and operational requirements, such as:
Load capacity (belt, material, and structure).
Belt speed, incline angle, and length.
Stability, weight distribution, and mobility.
Compliance Check: Verify that the design complies with standards (e.g., ISO, ASTM, or CE).
Initial Structural Calculations: Confirm the design can handle static and dynamic loads without failure. Use software like STAAD.Pro, SAP2000, or SolidWorks Simulation.
2. 3D Modeling of the Stacker
Use CAD software like AutoCAD, SolidWorks, or Inventor to develop a detailed 3D model:
Create assemblies: Conveyor frame, belt system, rollers, wheels/tracks, drive mechanism, and hydraulic/electrical systems.
Include tolerances, materials, and connection details.
Simulation/Analysis: Run finite element analysis (FEA) to validate the structural integrity under:
Load and stress.
Wind forces and dynamic movement.
3. Break Down the Model into Components
Divide the model into individual parts/components, including:
Frame: Steel sections (I-beams, box sections, etc.).
Belt System: Drive drums, idlers, rollers, pulleys.
Support Structure: Legs, outriggers, stabilizers.
Hydraulic/Electrical Mechanisms: Motors, actuators, or control panels.
Assign part numbers and names for easy tracking.
4. Develop Detailed Fabrication Drawings
For each component:
Manufacturing Drawings: Create 2D detailed drawings that include:
Dimensions (length, thickness, hole locations).
Material specifications: Steel grade, surface treatment (e.g., galvanized, painted).
Tolerances and welding symbols.
Assembly references.
Bill of Materials (BOM): List all components with quantities, materials, and specifications.
Use software like:
AutoCAD for 2D drawings.
SolidWorks or Inventor for generating drawing sheets from 3D models.
5. Assembly Drawings
Create assembly drawings to show how components fit together:
Use exploded views with labels.
Include critical assembly sequences, bolts, fasteners, and torque values.
Provide welding diagrams for steel structures.
6. Workshop and Supplier Review
Share the drawings with your workshop or supplier for a fabrication feasibility review:
Confirm they can fabricate components within specified tolerances.
Ensure proper sourcing of raw materials and standard parts (e.g., bearings, pulleys).
7. Finalize and Approve
Incorporate any feedback or modifications.
Release final approved drawings with revisions labeled (Rev. 0, 1, etc.).
Deliverables for the Workshop
Detailed Drawings: For each component and assembly.
Bill of Materials (BOM): List all parts, materials, and quantities.
Cutting and Fabrication Instructions: CNC, welding, and assembly guidelines.
Quality Control Checklist: For verifying critical tolerances and alignments during fabrication. read less
1. Review and Validate the Concept Design
Assess Feasibility: Review your existing drawing to ensure it meets functional and operational requirements, such as:
Load capacity (belt, material, and structure).
Belt speed, incline angle, and length.
Stability, weight distribution, and mobility.
Compliance Check: Verify that the design complies with standards (e.g., ISO, ASTM, or CE).
Initial Structural Calculations: Confirm the design can handle static and dynamic loads without failure. Use software like STAAD.Pro, SAP2000, or SolidWorks Simulation.
2. 3D Modeling of the Stacker
Use CAD software like AutoCAD, SolidWorks, or Inventor to develop a detailed 3D model:
Create assemblies: Conveyor frame, belt system, rollers, wheels/tracks, drive mechanism, and hydraulic/electrical systems.
Include tolerances, materials, and connection details.
Simulation/Analysis: Run finite element analysis (FEA) to validate the structural integrity under:
Load and stress.
Wind forces and dynamic movement.
3. Break Down the Model into Components
Divide the model into individual parts/components, including:
Frame: Steel sections (I-beams, box sections, etc.).
Belt System: Drive drums, idlers, rollers, pulleys.
Support Structure: Legs, outriggers, stabilizers.
Hydraulic/Electrical Mechanisms: Motors, actuators, or control panels.
Assign part numbers and names for easy tracking.
4. Develop Detailed Fabrication Drawings
For each component:
Manufacturing Drawings: Create 2D detailed drawings that include:
Dimensions (length, thickness, hole locations).
Material specifications: Steel grade, surface treatment (e.g., galvanized, painted).
Tolerances and welding symbols.
Assembly references.
Bill of Materials (BOM): List all components with quantities, materials, and specifications.
Use software like:
AutoCAD for 2D drawings.
SolidWorks or Inventor for generating drawing sheets from 3D models.
5. Assembly Drawings
Create assembly drawings to show how components fit together:
Use exploded views with labels.
Include critical assembly sequences, bolts, fasteners, and torque values.
Provide welding diagrams for steel structures.
6. Workshop and Supplier Review
Share the drawings with your workshop or supplier for a fabrication feasibility review:
Confirm they can fabricate components within specified tolerances.
Ensure proper sourcing of raw materials and standard parts (e.g., bearings, pulleys).
7. Finalize and Approve
Incorporate any feedback or modifications.
Release final approved drawings with revisions labeled (Rev. 0, 1, etc.).
Deliverables for the Workshop
Detailed Drawings: For each component and assembly.
Bill of Materials (BOM): List all parts, materials, and quantities.
Cutting and Fabrication Instructions: CNC, welding, and assembly guidelines.
Quality Control Checklist: For verifying critical tolerances and alignments during fabrication. read less
To take my initial stacker drawing and develop final detailed drawings suitable for a workshop to construct the stacker, you can follow these key steps:
1. Review and Validate the Concept Design
Assess Feasibility: Review your existing drawing to ensure it meets functional and operational requirements, such as:
Load capacity (belt, material, and structure).
Belt speed, incline angle, and len... read more
1. Review and Validate the Concept Design
Assess Feasibility: Review your existing drawing to ensure it meets functional and operational requirements, such as:
Load capacity (belt, material, and structure).
Belt speed, incline angle, and len... read more
To take my initial stacker drawing and develop final detailed drawings suitable for a workshop to construct the stacker, you can follow these key steps:
1. Review and Validate the Concept Design
Assess Feasibility: Review your existing drawing to ensure it meets functional and operational requirements, such as:
Load capacity (belt, material, and structure).
Belt speed, incline angle, and length.
Stability, weight distribution, and mobility.
Compliance Check: Verify that the design complies with standards (e.g., ISO, ASTM, or CE).
Initial Structural Calculations: Confirm the design can handle static and dynamic loads without failure. Use software like STAAD.Pro, SAP2000, or SolidWorks Simulation.
2. 3D Modeling of the Stacker
Use CAD software like AutoCAD, SolidWorks, or Inventor to develop a detailed 3D model:
Create assemblies: Conveyor frame, belt system, rollers, wheels/tracks, drive mechanism, and hydraulic/electrical systems.
Include tolerances, materials, and connection details.
Simulation/Analysis: Run finite element analysis (FEA) to validate the structural integrity under:
Load and stress.
Wind forces and dynamic movement.
3. Break Down the Model into Components
Divide the model into individual parts/components, including:
Frame: Steel sections (I-beams, box sections, etc.).
Belt System: Drive drums, idlers, rollers, pulleys.
Support Structure: Legs, outriggers, stabilizers.
Hydraulic/Electrical Mechanisms: Motors, actuators, or control panels.
Assign part numbers and names for easy tracking.
4. Develop Detailed Fabrication Drawings
For each component:
Manufacturing Drawings: Create 2D detailed drawings that include:
Dimensions (length, thickness, hole locations).
Material specifications: Steel grade, surface treatment (e.g., galvanized, painted).
Tolerances and welding symbols.
Assembly references.
Bill of Materials (BOM): List all components with quantities, materials, and specifications.
Use software like:
AutoCAD for 2D drawings.
SolidWorks or Inventor for generating drawing sheets from 3D models.
5. Assembly Drawings
Create assembly drawings to show how components fit together:
Use exploded views with labels.
Include critical assembly sequences, bolts, fasteners, and torque values.
Provide welding diagrams for steel structures.
6. Workshop and Supplier Review
Share the drawings with your workshop or supplier for a fabrication feasibility review:
Confirm they can fabricate components within specified tolerances.
Ensure proper sourcing of raw materials and standard parts (e.g., bearings, pulleys).
7. Finalize and Approve
Incorporate any feedback or modifications.
Release final approved drawings with revisions labeled (Rev. 0, 1, etc.).
Deliverables for the Workshop
Detailed Drawings: For each component and assembly.
Bill of Materials (BOM): List all parts, materials, and quantities.
Cutting and Fabrication Instructions: CNC, welding, and assembly guidelines.
Quality Control Checklist: For verifying critical tolerances and alignments during fabrication. read less
1. Review and Validate the Concept Design
Assess Feasibility: Review your existing drawing to ensure it meets functional and operational requirements, such as:
Load capacity (belt, material, and structure).
Belt speed, incline angle, and length.
Stability, weight distribution, and mobility.
Compliance Check: Verify that the design complies with standards (e.g., ISO, ASTM, or CE).
Initial Structural Calculations: Confirm the design can handle static and dynamic loads without failure. Use software like STAAD.Pro, SAP2000, or SolidWorks Simulation.
2. 3D Modeling of the Stacker
Use CAD software like AutoCAD, SolidWorks, or Inventor to develop a detailed 3D model:
Create assemblies: Conveyor frame, belt system, rollers, wheels/tracks, drive mechanism, and hydraulic/electrical systems.
Include tolerances, materials, and connection details.
Simulation/Analysis: Run finite element analysis (FEA) to validate the structural integrity under:
Load and stress.
Wind forces and dynamic movement.
3. Break Down the Model into Components
Divide the model into individual parts/components, including:
Frame: Steel sections (I-beams, box sections, etc.).
Belt System: Drive drums, idlers, rollers, pulleys.
Support Structure: Legs, outriggers, stabilizers.
Hydraulic/Electrical Mechanisms: Motors, actuators, or control panels.
Assign part numbers and names for easy tracking.
4. Develop Detailed Fabrication Drawings
For each component:
Manufacturing Drawings: Create 2D detailed drawings that include:
Dimensions (length, thickness, hole locations).
Material specifications: Steel grade, surface treatment (e.g., galvanized, painted).
Tolerances and welding symbols.
Assembly references.
Bill of Materials (BOM): List all components with quantities, materials, and specifications.
Use software like:
AutoCAD for 2D drawings.
SolidWorks or Inventor for generating drawing sheets from 3D models.
5. Assembly Drawings
Create assembly drawings to show how components fit together:
Use exploded views with labels.
Include critical assembly sequences, bolts, fasteners, and torque values.
Provide welding diagrams for steel structures.
6. Workshop and Supplier Review
Share the drawings with your workshop or supplier for a fabrication feasibility review:
Confirm they can fabricate components within specified tolerances.
Ensure proper sourcing of raw materials and standard parts (e.g., bearings, pulleys).
7. Finalize and Approve
Incorporate any feedback or modifications.
Release final approved drawings with revisions labeled (Rev. 0, 1, etc.).
Deliverables for the Workshop
Detailed Drawings: For each component and assembly.
Bill of Materials (BOM): List all parts, materials, and quantities.
Cutting and Fabrication Instructions: CNC, welding, and assembly guidelines.
Quality Control Checklist: For verifying critical tolerances and alignments during fabrication. read less
Things to know
Expert
Skill Level
$2,000
Fixed-rate (USD)
Full-time
Job type
Under 1-month
Job duration
Areas of expertise
2D & 3D CAD Design
Job categories
Industrial Design Services
About the client
Payment not ready
Greece (07:51 am)
Posted
Active
Job activity
13 Applicants
0 interviews in progress
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