左のテーブル Abstract and I. Introduction (抽象とI.紹介) 2.システムモデル セキュア・プライベート・ソース・コーディング・リージョン 4. Gaussian Sources and Channels (ガウシアのソースとチャンネル) V. Theorem 1の証拠 認定と参照 V. 理論の証明 1 A. Theorem 1 の実現性証明 We leverage the output statistics of random binning (OSRB) method [16], [43], [44] for the achievability proof by following the steps described in [45, Section 1.6]. We leverage the output statistics of random binning (OSRB) method [16], [43], [44] for the achievability proof by following the steps described in [45, Section 1.6]. 証拠スケッチ: (58) and (60) result in a communication (storage) rate(通信(ストレージ)レート) Communication Rate: プライベートキーKは均一に分布し、ソースとチャネルのランダム変数に独立しているため、次の仮想シナリオを考慮して漏洩を計算できます。 Privacy Leakage Rate: 次に、プライベート キーの上記の属性を考慮し、および 1 回のパッディング ステップ(52)を考慮すると、仮想 シナリオで計算された漏洩から H(K) = nR0 を引くことができ、元の問題の漏洩を得るため、これが (59) と (60) の合計から生じるので、  → 0 が n → ∞ の場合です。 B. Converse Proof for Theorem 1 私達は得る Privacy Leakage Rate: n(Rl + δn) われわれは Secrecy Leakage Rate: We use the support lemma [48, Lemma 15.4] for the cardinality bound proofs, which is a standard step, so we omit the proof. 我々は、標準的なステップであるカーディナリティ結束証拠のために、サポート lemma [48, Lemma 15.4] を使用します。 Cardinality Bounds: 認知度 O. Gunlu および R. F. Schaefer は、ドイツ連邦教育研究省(BMBF)による Grant 16KIS1004 による部分的な支援を受けました。H. Boche は、Grant 16KISQ037K による 6G コミュニケーション システムに関する国営イニシアチブを通じて、Grant 16KISK002 による 6G-life 研究ハブおよび Post Quantum Crypto の情報理論に関する国営イニシアチブ「Quantum Token Theory and Applications - QTOK」の下で、Grant 16KISQ037K によって、ドイツの Excellence Strategy EXC-2092 CASA-390781972 でドイツ研究財団 (DFG) から追加の資金調達を受けました。 参照 [1] D. Slepian and J. Wolf, “Noiseless coding of correlated information sources,” IEEE Trans. Inf. Theory, vol. 19, no. 4, pp. 471-480, July 1973. [2] A. El Gamal and Y.-H. Kim, Network Information Theory. ケンブリッジ, UK: Cambridge University Press, 2011. [3] A. Orlitsky and J. R. 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 著者: (1) コミュニケーションエンジニアリングとセキュリティ会長、シェーゲン大学および情報コーディング部門、電気工学部、リンコピング大学のOnur Gunlu(onur.guenlue@uni-siegen.de) (2)ラファエル・F・シェファー、通信工学とセキュリティ部長、シェーゲン大学(rafael.schaefer@uni-siegen.de) (3) ミュンヘン工科大学理論情報技術会長ホルガー・ボーチェ(CASA:Cyber Security in the Age of Large-Scale Adversaries Exzellenzcluster, Ruhr-Universitat Bochum, and BMBF Research Hub 6G-Life, Technical University of Munich) (4) H. Vincent Poor、プリンストン大学電気・コンピュータ工学部(poor@princeton.edu) Authors: (1) コミュニケーションエンジニアリングとセキュリティ会長、シェーゲン大学および情報コーディング部門、電気工学部、リンコピング大学のOnur Gunlu(onur.guenlue@uni-siegen.de) (2)ラファエル・F・シェファー、通信工学とセキュリティ部長、シェーゲン大学(rafael.schaefer@uni-siegen.de) (3) ミュンヘン工科大学理論情報技術会長ホルガー・ボーチェ(CASA:Cyber Security in the Age of Large-Scale Adversaries Exzellenzcluster, Ruhr-Universitat Bochum, and BMBF Research Hub 6G-Life, Technical University of Munich) (4) H. Vincent Poor、プリンストン大学電気・コンピュータ工学部(poor@princeton.edu) 
 
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