This study reports the direct observation of dipolar-stabilized skyrmions (SKs) and antiskyrmions (ASKs) with arbitrary topological charges in Co/Ni multilayers at room temperature. The researchers explored spin objects with topological charges up to 10, characterized their nucleation process, and investigated their energy dependence on the topological charge and the effect of material parameters on stability. Micromagnetic simulations demonstrated spin-transfer-induced motion of these spin objects, which is crucial for potential device applications. The work highlights the accessibility and stability of these spin textures at room temperature, opening new avenues for both fundamental and applied research in skyrmionic devices, including unconventional computing and new storage concepts. The findings contribute to the emerging field of skyrmions and provide a platform for further exploration of high-order spin objects.This study reports the direct observation of dipolar-stabilized skyrmions (SKs) and antiskyrmions (ASKs) with arbitrary topological charges in Co/Ni multilayers at room temperature. The researchers explored spin objects with topological charges up to 10, characterized their nucleation process, and investigated their energy dependence on the topological charge and the effect of material parameters on stability. Micromagnetic simulations demonstrated spin-transfer-induced motion of these spin objects, which is crucial for potential device applications. The work highlights the accessibility and stability of these spin textures at room temperature, opening new avenues for both fundamental and applied research in skyrmionic devices, including unconventional computing and new storage concepts. The findings contribute to the emerging field of skyrmions and provide a platform for further exploration of high-order spin objects.