Convex Analysis and Optimization
By Dimitri P. Bertsekas, Angelia Nedić, Asuman E. Ozdaglar. 2003
802 citations recorded by the source corpus.
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Citations in the corpus
- Linear Convergence of Gradient and Proximal-Gradient Methods Under the Polyak-Łojasiewicz Condition (2016, background): “…analogous to the gradient vector in the smooth case, the negation of the quantity argmin s ∈ ∂F ( x ) s points in the direction of steepest descent [see Bertsekas et al., 2003, Section 8.4] We first derive an alternative representation of D g ( x, L ) in terms of the so-called forward-backward…”
- Exact Matrix Completion via Convex Optimization (2008, background): “ that Xis solution to (1.5) if there exists a dual vector (or Lagrange multiplier) 2Rj jsuch that R is a subgradient of the nuclear norm at the point X, which we denote by R 2@kXk (3.1) (see, e.g. [7]). Recall the denition of a subgradient of a convex function f: Rn 1 n 2 !R. We say that Y is a subg”
- Network Topology and Communication-Computation Tradeoffs in Decentralized Optimization (2017, methodology): “ k uk2 2 2 h(uk) h(u) + 2L2: 10Under weaker assumptions on the stepsize than those of Theorem 7, namely k !0 and P 1 k=0 k = 1, one can show that liminf k!1h(x k) = h, where h = inf x2Rdh(x), see [1], [42], [43]. 14 By summing these inequalities over k= 0;1;:::T, re-arranging the terms, and dividi”
- Stochastic Gradient-Push for Strongly Convex Functions on Time-Varying Directed Graphs (2014, methodology): “0)k2 +c2), then we obtain kuk2 kvk2: Define the set Vto be the level set of q, as follows: V= fzjq(z) q(0) + 2(krq(0)k2 + c2): Being the level-set of a strongly-convex function, the set Vis compact [2](see Proposition 2.3.1(b), page 93). From the preceding discussion we see that if v62V, then kukkvk.”
- Convergence Rates of Inexact Proximal-Gradient Methods for Convex Optimization (2011, background): “Lemma 2 If x i is an ε i -optimal solution to the proximal problem (2) in the sense of (4) , then there exists f i such that (cid:107) f i Proof We first recall some properties of ε -subdifferentials (see, e.g., [41, Section 4.3] for more details).”
- The Dirichlet problem for the convex envelope (2010, background): “Since Cx is closed and convex, then by the Plane Separation Theorem [3] there is an affine function L such that L(y) > 0 and L 0 in D.”
- Trading regret for efficiency: online convex optimization with long term constraints (2011, methodology): “Although, at each iteration, λt is projected onto the Rm+ , since K is a compact set and functions ft(x) and gi(x), i ∈ [m] are convex, the boundedness of the functions implies that the gradients are bounded (Bertsekas et al., 2003, Proposition 4.2.3).”
- Automatic Creation of Semantically Rich 3D Building Models from Laser Scanner Data (2011, methodology): “We find the optimal value for w using stochastic gradient ascent (Bertsekas et al. (2003)).”
- Incremental Stochastic Subgradient Algorithms for Convex Optimization (2008, unknown): “4) (see, for example, [2]).”