文摘
Let H be a real Hilbert space and C be a nonempty closed convex subset of H. Assume that g is a real-valued convex function and the gradient ∇g is \(\frac{1}{L}\)-ism with \(L>0\). Let \(0<\lambda <\frac{2}{L+2}\), \(0<\beta_{n}<1\). We prove that the sequence \(\{x_{n}\} \) generated by the iterative algorithm \(x_{n+1}=P_{C}(I-\lambda(\nabla g+\beta_{n}I))x_{n}\), \(\forall n\geq0\) converges strongly to \(q\in U\), where \(q=P_{U}(0)\) is the minimum-norm solution of the constrained convex minimization problem, which also solves the variational inequality \(\langle-q, p-q\rangle\leq0\), \(\forall p\in U\). Under suitable conditions, we obtain some strong convergence theorems. As an application, we apply our algorithm to solving the split feasibility problem in Hilbert spaces.