{
  "schema": "selected-prerequisite-readings/v1",
  "course": "representations-of-compact-groups",
  "readings": [
    {
      "course": "harmonic-analysis-on-locally-compact-groups",
      "lesson": "haar-measure-on-locally-compact-groups",
      "source_sha256": "6c3ba44cc4d8c0c1fb12ec478481c44bf623f4252d8366d208939e5bd79f979d",
      "editable_source": "reader/courses/harmonic-analysis-on-locally-compact-groups/src/haar-measure-on-locally-compact-groups.md",
      "reader": "reader/courses/harmonic-analysis-on-locally-compact-groups/haar-measure-on-locally-compact-groups.html",
      "proof_scope": [
        "Section2 complete Riesz/Radon representation, regularity and new bounded complex C0 functional theorem: lines45–146",
        "Sections3–6 complete density, product, full Radon Tonelli/Fubini and L2 tensor-product statements/proofs: lines147–272",
        "Section7 full topological group and uniform continuity proofs: lines273–304",
        "Theorem8.3/Lemma8.4 entire existence construction; Proposition9.1/Theorem9.2 positivity/uniqueness; Theorem10.1 modular function; Theorem11.1 inversion: lines305–443",
        "Theorem14.2 statement and complete proof, especially translation continuity part6: lines554–627"
      ],
      "authorship_notice": "*Originally written by Claude Opus 5.5 (Anthropic), September 2026, with a separate historical AI spot-check of that text. Repaired and self-checked by GPT-6.1 Sol (OpenAI), Ultra reasoning effort, October 2026. The current edition has no separately recorded independent AI or human review. Original programme content is dedicated under CC0.*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "foundations-of-von-neumann-algebras",
      "lesson": "hilbert-spaces-and-compact-operators",
      "source_sha256": "24e37107d506fcc8b4400cc70f8a8934815b3dbe24d73a9150a12c3fddc32fbe",
      "editable_source": "reader/courses/foundations-of-von-neumann-algebras/src/hilbert-spaces-and-compact-operators.md",
      "reader": "reader/courses/foundations-of-von-neumann-algebras/hilbert-spaces-and-compact-operators.html",
      "proof_scope": [
        "Sections1–4 complete Cauchy–Schwarz, projection, Riesz–Frechet, bounded forms/adjoints and arbitrary orthonormal bases: lines1–120",
        "Sections5–6 complete compact approximation and compact self-adjoint spectral theorem: lines121–178"
      ],
      "authorship_notice": "*Written by Claude Opus 5.5 (Anthropic), October 2026. Self-checked by the writing AI. Public domain (CC0).*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "foundations-of-von-neumann-algebras",
      "lesson": "the-spectral-theorem-for-bounded-self-adjoint-operators",
      "source_sha256": "d85fe0965b436b79f5260526e3e7b05fbe56d6811320a5fc7f3bcd1b696a82e5",
      "editable_source": "reader/courses/foundations-of-von-neumann-algebras/src/the-spectral-theorem-for-bounded-self-adjoint-operators.md",
      "reader": "reader/courses/foundations-of-von-neumann-algebras/the-spectral-theorem-for-bounded-self-adjoint-operators.html",
      "proof_scope": [
        "Conventions/isometric continuous calculus; sections1–4 complete, including Borel calculus, commutation and projection-valued theorem: lines1–249"
      ],
      "authorship_notice": "*Written by Claude Opus 5.5 (Anthropic), October 2026. Self-checked by the writing AI. Public domain (CC0).*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "function-algebras-and-approximation",
      "lesson": "the-stone-weierstrass-theorem-for-functions-vanishing-at-infinity",
      "source_sha256": "e96dff833d3ea82967912dfa90a653d90ad06b934da315773a1482f7caeda204",
      "editable_source": "reader/courses/function-algebras-and-approximation/src/the-stone-weierstrass-theorem-for-functions-vanishing-at-infinity.md",
      "reader": "reader/courses/function-algebras-and-approximation/the-stone-weierstrass-theorem-for-functions-vanishing-at-infinity.html",
      "proof_scope": [
        "Theorem 5.1 and Corollary 5.2 with complete proofs: lines152–177",
        "Sections6–10 complete polynomial/interpolation/lattice/real and complex density proofs: lines205–355"
      ],
      "authorship_notice": "*Written by Claude Opus 5.5 (Anthropic), September 2026. Spot-checked by Claude Opus 5.5 in a separate session. Public domain (CC0).*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "DG-FND",
      "lesson": "local-tools-for-bundles-and-transport",
      "source_sha256": "c75114b2329f48febd2fabb6f045f5890c93a6357ea522804f22814ebc9e0e93",
      "editable_source": "reader/courses/DG-FND/src/local-tools-for-bundles-and-transport.md",
      "reader": "reader/courses/DG-FND/local-tools-for-bundles-and-transport.html",
      "proof_scope": [
        "Sections1–2 complete contraction, inverse-function and flow proofs, invariant-equation lemma and exponential construction: lines9–95"
      ],
      "authorship_notice": "*Written by GPT-6.1 Sol (OpenAI), Ultra effort, October 2026. Draft; self-checked by the writing AI, GPT-6.1 Sol, at Ultra effort. Original text dedicated to the public domain under CC0 1.0.*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "DG-FND",
      "lesson": "invariant-connections-on-homogeneous-bundles",
      "source_sha256": "24fa182cc32a18bffc8aaab12e0b4b22a991335f92d7a4d794ae5858d0653031",
      "editable_source": "reader/courses/DG-FND/src/invariant-connections-on-homogeneous-bundles.md",
      "reader": "reader/courses/DG-FND/invariant-connections-on-homogeneous-bundles.html",
      "proof_scope": [
        "Theorem 1.1 full closed-subgroup proof and surrounding conventions: lines1–59"
      ],
      "authorship_notice": "*Written by GPT-6.1 Sol (OpenAI), Ultra effort, October 2026. Draft; self-checked by the writing AI, GPT-6.1 Sol, at Ultra effort. Original text dedicated to the public domain under CC0 1.0.*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "foundations-of-von-neumann-algebras",
      "lesson": "hahn-banach-baire-and-the-basic-theorems-on-banach-spaces",
      "source_sha256": "0ddb8296704ac067318d411b8f4097aa119b244f6436e96ce6623a9932d116ed",
      "editable_source": "reader/courses/foundations-of-von-neumann-algebras/src/hahn-banach-baire-and-the-basic-theorems-on-banach-spaces.md",
      "reader": "reader/courses/foundations-of-von-neumann-algebras/hahn-banach-baire-and-the-basic-theorems-on-banach-spaces.html",
      "proof_scope": [
        "Sections1–2 complete Zorn and real/complex seminorm Hahn–Banach proofs: lines30–99"
      ],
      "authorship_notice": "*Written by Claude Opus 5.5 (Anthropic), October 2026. Self-checked by the writing AI. Public domain (CC0).*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "DG-FND",
      "lesson": "flat-connections-and-infinitesimal-holonomy",
      "source_sha256": "6f8bcb5d4dc2e86ac4407b1516dbdca8864d66c5f3d07d973c9f341ea1620367",
      "editable_source": "reader/courses/DG-FND/src/flat-connections-and-infinitesimal-holonomy.md",
      "reader": "reader/courses/DG-FND/flat-connections-and-infinitesimal-holonomy.html",
      "proof_scope": [
        "Lemma2.1 complete path/homotopy universal-cover proof: lines43–66",
        "Lemma3.2 complete immersed subgroup and uniqueness proof: lines166–173"
      ],
      "authorship_notice": "*Written by GPT-6.1 Sol (OpenAI), Ultra effort, October 2026. Draft; self-checked by the writing AI, GPT-6.1 Sol, at Ultra effort. Original text dedicated to the public domain under CC0 1.0.*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "DG-FND",
      "lesson": "curvature-and-holonomy-groups",
      "source_sha256": "7d5cd25f235ee35685b94deb3919be7c69a7fe6aef0679f1a5b8a5fe36e9fec6",
      "editable_source": "reader/courses/DG-FND/src/curvature-and-holonomy-groups.md",
      "reader": "reader/courses/DG-FND/curvature-and-holonomy-groups.html",
      "proof_scope": [
        "Lemma4.1 complete smoothly generated subgroup maximal-rank/chart/countability proof: lines139–162",
        "Lemma5.2 countability of fundamental group proof: lines179–184"
      ],
      "authorship_notice": "*Written by GPT-6.1 Sol (OpenAI), Ultra effort, October 2026. Draft; self-checked by the writing AI, GPT-6.1 Sol, at Ultra effort. Original text dedicated to the public domain under CC0 1.0.*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "DG-FND",
      "lesson": "riemannian-connections-and-convex-neighbourhoods",
      "source_sha256": "58c35cc6e38afdf81b8ee0b5430543be6169c73f2c5062579a63f863068837f9",
      "editable_source": "reader/courses/DG-FND/src/riemannian-connections-and-convex-neighbourhoods.md",
      "reader": "reader/courses/DG-FND/riemannian-connections-and-convex-neighbourhoods.html",
      "proof_scope": [
        "Sections1–2 complete distance/topology and Levi–Civita/Koszul proofs: lines1–208",
        "Theorem3.1 Gauss lemma and Theorem3.2 complete normal-ball minimizing proof: lines265–409",
        "Theorem4.1 complete strong convexity proof: lines463–501"
      ],
      "authorship_notice": "*Written by GPT-6.1 Sol (OpenAI), Ultra effort, October 2026. Draft; self-checked by the writing AI, GPT-6.1 Sol, at Ultra effort. Original text dedicated to the public domain under CC0 1.0.*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "DG-FND",
      "lesson": "completeness-and-the-hopf-rinow-theorem",
      "source_sha256": "3e38489f6809ed011f5bc3c652f75e27877ebcc4413c7e6cb5dc47f61bbfb3c5",
      "editable_source": "reader/courses/DG-FND/src/completeness-and-the-hopf-rinow-theorem.md",
      "reader": "reader/courses/DG-FND/completeness-and-the-hopf-rinow-theorem.html",
      "proof_scope": [
        "Sections1–3 entire radius-extension proof, completeness equivalences Theorem3.1 and compact Corollary3.2: lines1–360"
      ],
      "authorship_notice": "*Written by GPT-6.1 Sol (OpenAI), Ultra effort, October 2026. Draft; self-checked by the writing AI, GPT-6.1 Sol, at Ultra effort. Original text is CC0 1.0; the attributed Clifton half-cylinder subsection retains CC BY 4.0.*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "RT-LIE",
      "lesson": "RT-LIE-08",
      "source_sha256": "857737779e83230da3e5e9169e0799306ec139c092c4aa6df296d66dd2939300",
      "editable_source": "reader/courses/RT-LIE/src/RT-LIE-08.md",
      "reader": "reader/courses/RT-LIE/RT-LIE-08.html",
      "proof_scope": [
        "Sections1–5 complete base, walls, simple-root permutation, exchange, word length, chamber simple transitivity and longest element proofs: lines1–204"
      ],
      "authorship_notice": "*Written by GPT-6.1 Sol (OpenAI) in Codex, Ultra setting, October 2026. Self-checked by the writing AI. Public domain (CC0).*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "RT-LIE",
      "lesson": "RT-LIE-13",
      "source_sha256": "021ac3965e1b08741cda139f911501313ca0ded65fe419846bc379576091f856",
      "editable_source": "reader/courses/RT-LIE/src/RT-LIE-13.md",
      "reader": "reader/courses/RT-LIE/RT-LIE-13.html",
      "proof_scope": [
        "Theorem2.1 complete ordered-word PBW proof with all ambiguity cases: lines42–105",
        "Section4 full subalgebra and triangular multiplication proofs: lines147–188"
      ],
      "authorship_notice": "*Written by GPT-6.1 Sol (OpenAI) in Codex, Ultra setting, October 2026. Self-checked by the writing AI. Public domain (CC0).*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "RT-LIE",
      "lesson": "RT-LIE-16",
      "source_sha256": "0228e1c7023b143d5cd467878aa23bc6650596799303598ab2a90ed7a17c7394",
      "editable_source": "reader/courses/RT-LIE/src/RT-LIE-16.md",
      "reader": "reader/courses/RT-LIE/RT-LIE-16.html",
      "proof_scope": [
        "Sections4–5 complete Kostant and Freudenthal proofs: lines167–244; semisimple/inverse-Killing scope compared to own arbitrary reductive/invariant-metric proof"
      ],
      "authorship_notice": "*Written by GPT-6.1 Sol (OpenAI) in Codex, Ultra setting, October 2026. Self-checked by the writing AI. Public domain (CC0).*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "HA-LCA",
      "lesson": "HA-LCA-02",
      "source_sha256": "8f385917fc9b73f0fc0032136c669a1d83f0470a2f51780391b2dffb6bc5529e",
      "editable_source": "reader/courses/HA-LCA/src/HA-LCA-02.md",
      "reader": "reader/courses/HA-LCA/HA-LCA-02.html",
      "proof_scope": [
        "Theorem3.1 full real-line local-lift and topology proof; Corollary3.2 full circle/integers proof: lines80–137"
      ],
      "authorship_notice": "*Written by GPT-6.1 Sol (OpenAI) in Codex, Ultra setting, October 2026. Self-checked by GPT-6.1 Sol (OpenAI). Public domain (CC0).*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "HA-LCA",
      "lesson": "HA-LCA-08",
      "source_sha256": "bfb076ca1da813ff3d4bd0aa103266114be28cc52815abc3d1326eb34954a210",
      "editable_source": "reader/courses/HA-LCA/src/HA-LCA-08.md",
      "reader": "reader/courses/HA-LCA/HA-LCA-08.html",
      "proof_scope": [
        "Theorem1.1 full arbitrary-LCA Plancherel isometry/surjectivity and exact Fourier convention: lines1–88"
      ],
      "authorship_notice": "*Written by GPT-6.1 Sol (OpenAI) in Codex, Ultra setting, October 2026. Self-checked by GPT-6.1 Sol (OpenAI). Public domain (CC0).*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "HA-LCA",
      "lesson": "HA-LCA-10",
      "source_sha256": "26c9704658dd289d50f3184b5b5ba333538f2b028bbbbf4aea04f1c4824acb60",
      "editable_source": "reader/courses/HA-LCA/src/HA-LCA-10.md",
      "reader": "reader/courses/HA-LCA/HA-LCA-10.html",
      "proof_scope": [
        "Theorem4.1 complete Radon/L1 Weil integration proof, no sigma compactness, null-representative handling: lines151–223"
      ],
      "authorship_notice": "*Written by GPT-6.1 Sol (OpenAI) in Codex, Ultra setting, October 2026. Self-checked by GPT-6.1 Sol (OpenAI). Public domain (CC0).*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "HA-LCA",
      "lesson": "HA-LCA-12",
      "source_sha256": "a6f5c55b037bbc34615d6516b336be76e34f2114268c096a2abedcee05b1e9af",
      "editable_source": "reader/courses/HA-LCA/src/HA-LCA-12.md",
      "reader": "reader/courses/HA-LCA/HA-LCA-12.html",
      "proof_scope": [
        "Theorem6.1 entire torus Kronecker statement/proof and generation construction: lines214–232; compact proof using own Peter–Weyl also supplied in RT-CPT06"
      ],
      "authorship_notice": "*Written by GPT-6.1 Sol (OpenAI) in Codex, Ultra setting, October 2026. Self-checked by GPT-6.1 Sol (OpenAI). Public domain (CC0).*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "RT-FIN",
      "lesson": "RT-FIN-06",
      "source_sha256": "98475fe12e0c38592a1847d7fd308f0f60ae336f3a5c9f1b274bf360572b7efd",
      "editable_source": "reader/courses/RT-FIN/src/RT-FIN-06.md",
      "reader": "reader/courses/RT-FIN/RT-FIN-06.html",
      "proof_scope": [
        "Theorem3.1 both full adjunction proofs, function/tensor model conversions, naturality and character identity: lines117–204",
        "Exercise4 full opposite-corner Gelfand proof, zero-or-one condition: lines417–457"
      ],
      "authorship_notice": "*Written by GPT-6.1 Sol (OpenAI) in Codex, Ultra setting, October 2026. Self-checked by the AI that wrote it. Public domain (CC0).*",
      "role": "Selected prerequisite proof home; broader applications of its parent course are not claimed as part of the compact-group course."
    },
    {
      "course": "DG-FND",
      "lesson": "linear-and-affine-connections",
      "original_source_sha256": "7b0e68e44aab892a0c093af04db2f2038aee159f6f82477e69ca87e460373aae",
      "source_sha256": "eb81f92ffd40865e60cd42fbed6feee4d4448d9bfe961424ca541b23028e158f",
      "editable_source": "reader/courses/DG-FND/src/linear-and-affine-connections.md",
      "reader": "reader/courses/DG-FND/linear-and-affine-connections.html",
      "proof_scope": [
        "Complete sections 1–2, including all supplied proofs; source introduction limited to title and authorship notice."
      ],
      "authorship_notice": "*Written by GPT-6.1 Sol (OpenAI), Ultra effort, October 2026. Draft; self-checked by the writing AI, GPT-6.1 Sol, at Ultra effort. Original text and figure dedicated to the public domain under CC0 1.0.*",
      "role": "Exact geometric background excerpt, additionally read for the publication navigation repair."
    },
    {
      "course": "DG-FND",
      "lesson": "geodesics-normal-coordinates-and-curvature",
      "original_source_sha256": "e7d1035d71da8c0dbc648cb17a3bd1a36c10c5d250da132b699560f0aa6c5f7a",
      "source_sha256": "164cfd837f18631db1bdf8215d6f2272e7e1caa1168704bfdcf67cdf00bbfa9a",
      "editable_source": "reader/courses/DG-FND/src/geodesics-normal-coordinates-and-curvature.md",
      "reader": "reader/courses/DG-FND/geodesics-normal-coordinates-and-curvature.html",
      "proof_scope": [
        "Complete sections 1–2, including all supplied proofs; source introduction limited to title and authorship notice."
      ],
      "authorship_notice": "*Written by GPT-6.1 Sol (OpenAI), Ultra effort, October 2026. Draft; self-checked by the writing AI, GPT-6.1 Sol, at Ultra effort. Original text dedicated to the public domain under CC0 1.0.*",
      "role": "Exact geometric background excerpt, additionally read for the publication navigation repair."
    }
  ],
  "scope": "Exact selected proof homes and two geometric excerpts. Wider parent-course applications are additional reading, not extra compact-course completion claims. The published Banach and C*-algebra foundations are required by the general spectral proof route and linked separately; the compact-averaging Schur proof uses the included exact prerequisites.",
  "compact_schur_alternative": "reader/compact-schur-proof.html",
  "integration": {
    "model": "GPT-6.1 Sol",
    "provider": "OpenAI",
    "reasoning_effort": "Ultra",
    "date": "2026-10-03",
    "independent_review": false
  },
  "component_exception": "The Hopf–Rinow chapter’s attributed Clifton half-cylinder subsection retains CC BY 4.0; its source notice names Jacob W. Erickson and Benjamin McKay and preserves their attribution and adaptation description.",
  "published_foundation_dependencies": [
    {
      "course": "foundations-of-von-neumann-algebras",
      "lesson": "banach-algebras-spectrum-holomorphic-functional-calculus-and-gelfand-theory",
      "role": "Required by the continuous-calculus foundation of the general spectral Schur proof: nonempty spectrum, spectral radius and Gelfand representation.",
      "source_sha256": "230a06629852678959feedc8dc68c23a86b4e54208b5906e88b24ad1640b3e13",
      "reader": "https://kokunoyumeto.github.io/open-math-courses/courses/foundations-of-von-neumann-algebras/banach-algebras-spectrum-holomorphic-functional-calculus-and-gelfand-theory.html",
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      "published_commit": "2159dd775e901ca20d02edd542db8bd7dba475e1",
      "conditions": "Complex Banach algebras; spectrum nonempty for a nontrivial unital algebra, spectral radius and Gelfand theory. Applied to B(H) and its commutative unital C*-subalgebras; no Hilbert separability assumption.",
      "proof_scope": [
        "Sections 2, 4 and 5: Neumann series, spectrum/resolvent, circle means, nonempty spectrum and spectral radius; complete stated proofs.",
        "Sections 9–11: quotients, maximal ideals, characters, Gelfand representation and characters of C0; complete stated proofs.",
        "Proposition 7.1 and holomorphic spectral mapping/composition used in the C*-chapter’s self-adjoint spectrum proof."
      ],
      "used_by": "RT-CPT-01 Theorem 4.1, through the bounded self-adjoint spectral provider",
      "included_offline": false
    },
    {
      "course": "foundations-of-von-neumann-algebras",
      "lesson": "c-star-algebras-continuous-functional-calculus-automatic-continuity-positive-cones",
      "role": "Required by the general spectral Schur proof: Theorem 5.1 provides isometry and commutation on B(H), for arbitrary Hilbert spaces.",
      "source_sha256": "217b49bb8e63bfbfe542eb957f3185b3f4af53f62676e1f3b8f7c071e996a8b9",
      "reader": "https://kokunoyumeto.github.io/open-math-courses/courses/foundations-of-von-neumann-algebras/c-star-algebras-continuous-functional-calculus-automatic-continuity-positive-cones.html",
      "immutable_source": "https://raw.githubusercontent.com/KokunoYumeto/open-math-courses/2159dd775e901ca20d02edd542db8bd7dba475e1/docs/courses/foundations-of-von-neumann-algebras/src/c-star-algebras-continuous-functional-calculus-automatic-continuity-positive-cones.md",
      "published_commit": "2159dd775e901ca20d02edd542db8bd7dba475e1",
      "conditions": "Unital complex C*-algebra and a normal element; Theorem 5.1 gives an isometric unital *-isomorphism C(spectrum(x)) onto C*(1,x), commuting with elements that commute with x and x*. Applied to self-adjoint h in B(H), for arbitrary nonzero complex Hilbert H.",
      "proof_scope": [
        "Theorem 1.3 and Proposition 1.5; Theorem 2.1 and Proposition 2.2; Theorems 3.2, 4.2 and 5.1, with complete proofs.",
        "Propositions 7.2 and 7.3; Theorem 8.2 and Proposition 8.5, including the Hilbert quadratic-form criterion (11).",
        "Only these proof scopes are claimed as read; the whole chapter is freely accessible through the published route."
      ],
      "used_by": "RT-CPT-01 Theorem 4.1, through the bounded self-adjoint spectral provider",
      "included_offline": false
    }
  ],
  "published_operator_companions": [
    {
      "lesson": "compact-and-trace-class-operators-the-predual-of-b-h-and-the-operator-topologies",
      "role": "Companion chapter on trace ideals, preduals and operator topologies. The compact spectral proof used here is in the included Hilbert-space chapter.",
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