In the context of hoisting operations for oil field pumping equipment facilities, frequent hoisting tasks are associated with the installation of borehole equipment. The prevalent approach for precise positioning during hoisting operations involves manual assistance, a practice that not only violates safety regulations but also poses significant risks of mechanical injuries. This paper introduces a magnetic-assisted docking pole designed to address safety hazards associated with manually supporting hoisted objects during hoisting operations. A finite element model is established based on relevant parameters to analyze the forces acting on the magnetic-assisted pole in its operational state. Utilizing the finite element method, stress analysis simulations are conducted to assess the maximum working stress and shear forces experienced by the entire pole and its individual components under operational conditions. Experimental results demonstrate that the maximum stress values for all components of the magnetic-assisted docking pole remain below the permissible levels defined in engineering design standards, thereby validating the structural stability and safety of the proposed system. The design of the magnetic-assisted docking pole significantly enhances on-site operational safety for workers and complies with the safety management requirements outlined by the Sinopec regarding “Hoisting Operation Safety Management”.