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Model the spur gear shaft using CATIA tools like Sketch, shaft etc.
Select the materials for the spur gear.
Perform the structural Analysis using ANSYS and determine the stress and deformation.
Compare the results and find the best material for the Spur Gear.
Begin by modeling the two base disks in AutoCAD 3D, defining the dimensions and adding central holes to accommodate the shafts, ensuring precise alignment for effective coupling.
Create the middle sliding piece, which transfers torque between the two disks, including the slots that allow lateral movement to accommodate misalignment in the shafts.
Assemble the two disks and the sliding piece within the 3D model, positioning them to replicate the actual function of Oldham’s coupling and verifying the correct fit.
Add details such as keyways, locking screws, and any necessary constraints to ensure the coupling holds together under rotation, allowing for realistic movement and rotation during simulation.
Begin by defining the key dimensions and specifications of the stuffing box, including the inner diameter, outer diameter, and depth, to ensure proper fit and functionality in the intended application.
Use CATIA’s Part Design workbench to create the 3D model of the stuffing box, starting with a cylindrical base and incorporating features like grooves for packing material and mounting points for bolts.
Model additional components such as the gland follower and packing rings, ensuring all parts align correctly and interact seamlessly within the assembly for effective sealing.
Utilize CATIA's analysis tools to simulate the stuffing box's performance under various operational conditions, assessing factors such as pressure and material stress to validate the design before production.
Model the Sugar Cane Roller Mill shaft in the ANSYS Geometric Modeler.
Select the materials for the Sugar Cane Roller Mill shaft.
Perform the structural Analysis using ANSYS and determine the stress and deformation.
Compare the results and find the best material for the Sugar Cane Roller Mill shaft.
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