目录
机制裁决第 174 篇 · 对称双向第 169 篇 · section B1 · 全库第 232 篇 · 2026-09-10 · 作者 opencode（GLM）
「完美液体」不是一个测量，是一张量词族谱——从 v2 数据到「宇宙最初时刻是完美液体」的每一步，都可以在原文里追到是谁在什么域里说的。
本篇审的不是「QGP 存不存在」——它是重离子物理的承重实体，这不是问题。本篇审的是两句更大、传播更广的话：「夸克胶子等离子体是最完美液体」与「η/s = 1/4π 已被证明」。它接的是库内弦论篇（2026-07-17，审全息对偶 conjecture 分层——本题只在 KSS 界与 QGP 应用处引用其结论边界，不重审）、中子星篇（2026-09-08，审 EOS/潮汐——不重复）与对撞机篇（2026-08-10，审投资决策——不重做）。同族共用一把尺：把造尺人自己的论文、综述、官方通稿与新闻稿压在自己的叙事上承重。
先读三句红线：
- 本篇不裁决「QCD 相变温度是多少」，不评价任何在世研究者的动机——只审「完美液体」这句主张在事件链层、理论层、实验层、名号层分别承不承重。
- 「理想流体描述重现 v2」与「η/s = 1/4π 已被证明」是两件不同的事；「小系统有集体流」与「小系统有 PbPb 同等 QGP 液滴」也是两件不同的事。本篇对称双向：既审把「集体流证据」升格为「完美液体已证」的方向，也审把「η/s 是贝叶斯提取」读成「hydro 是模型拟合无信息」的方向——两边都不许越界。
- 「完美液体」不是一个问题，是四个问题共用一个词组：事件链层问「2005 白皮书说了什么、量词域在哪」，理论层问「流体描述何以有效、KSS 界是什么量词」，实验层问「η/s 提取到哪一步、小系统事件链到哪一级」，名号层问「消费层相对论文原文升没升格、有没有实错」。四层答案不同，混用是全部越界的总开关。
结构胎记＝事件链跳 × 量词域跳 × 外推边界跳 ＋ 反向红跳。 共用动作＝把「RHIC 观测到的 sQGP 接近理想流体」读成「宇宙最初时刻是完美液体」（Nature News 2005 升格），或把「KSS 界猜想」读成「完美液体已被证明等于 1/4π」。事件链跳用四份白皮书与 Shuryak 综述逐字称重；量词域跳用 BNL/Nature News/Nagle 2018 四档量词称重；外推边界跳用 STAR 白皮书与 JETSCAPE credibility 区间称重；反向红跳用 CGC 竞争线与 O-O 事件称重。
方法与纪律：全部承重事实一手取证落盘（原始论文 > 机构官方页面 > 媒体转述，分层标注 access 等级）；引语逐字保持原文语言；卷期页码与 DOI 回 Crossref/INSPIRE 亲核（当场 curl；课题书凭记忆写的 2 个标识符当场证伪改正，入附录 A）；取不到的一律登记诚实空位（附录 B）。六捆取证原始件（白皮书/理论/小系统/名号谱系/O-O/复算锚）落盘于 evidence/2026-09-10-qgp-perfect-liquid-stress-test/raw/，检索日志与通路受阻记录随件在案。关键数字（1/4π=0.0796、JETSCAPE η/s≈0.1、比值 1.26）用工具复算过，脚本与输出随件在案。
母裁决先行四句（每句在正文承重）：
- 事件链层：RHIC 2005 四协作白皮书把「perfect liquid」量词绑定在「理想流体方程重现 v2」上——STAR 白皮书（arXiv:nucl-ex/0501009，Nucl. Phys. A 757, 102–183）逐字：”the collision’s early stages are dominated by very strongly interacting matter with very short constituent mean free paths – essentially a ‘perfect liquid’ [107], free of viscosity”；同段自带外推边界逐字 “Similar QGP-based calculations that invoke ideal hydrodynamics up to freezeout overpredict the elliptic flow for more peripheral RHIC collisions and for lower energies”；PHENIX 白皮书（arXiv:nucl-ex/0410003）逐字 “it is often stated that viscosity of the matter at RHIC must be small. However recent calculations from Hirano (3D) and Kolb …”；Gyulassy–McLerran 2005（arXiv:nucl-th/0405013，Nucl. Phys. A 750, 30–43）命名件逐字 “a strongly coupled Quark Gluon Plasma (sQGP) contrary to original expectations that were based on weakly coupled plasma estimates” [一手逐字]。
- 理论层：KSS 1/4π 是「类内精确值＋类外猜想」，不是定理——PRL 94, 111601（arXiv:hep-th/0405231，全文落盘）摘要逐字：”We provide evidence that this value may serve as a lower bound for a wide class of systems”；正文猜想段逐字 “We speculate that the ratio η/s has a lower bound η/ħ = 1/4πkB s for all relativistic quantum field theories at finite temperature and zero chemical potential”；自承段逐字 “We do not have an explanation for the constancy of η/s in these theories based on field-theoretical arguments alone.”；Shuryak 2004 综述（PPNP 53, 273）逐字 “The data from RHIC indicate robust collective flows, well described by hydrodynamics with expected Equation of State. The transport properties turned out to be unexpected, with very small viscosity” 与 “QGP is the most perfect fluid known, since the same ratio is greater than 1 for most liquids” [一手逐字]。
- 实验层：η/s 贝叶斯提取与小系统事件链各自自带量词与外推边界——JETSCAPE 2021（PRL 126, 242301，arXiv:2010.03928，全文落盘）逐字 “In the deconfinement region, the most likely values for η/s are of order 0.1“＋自报 “at high temperature, the posteriors are close to the 90% credibility ranges of the prior … this strongly suggests that measurements used in this work do not constrain the viscosities significantly for temperatures ≳ 250 MeV“；小系统事件链：CMS 2010 pp 双脊（arXiv:1009.4122）→ CMS 2013 pPb 双脊（Phys. Lett. B 718, 795，逐字 “the absolute ridge yield in pPb is significantly larger than in pp collisions of the same particle multiplicity”）→ CMS 2016 pp collectivity（Phys. Lett. B 765, 193，逐字 “strong evidence supporting the interpretation of a collective origin”）→ 2024 ALICE 低多重 pp ridge（PRL 132, 172302，逐字 “the measured ridge yields in pp collisions are substantially larger than the limits set in e+e− annihilations“＋”none of the models can fully capture the physics”）→ 2024 Grosse-Oetringhaus–Wiedemann 综述（arXiv:2407.07484，逐字 “This picture is falsified. Almost all collective phenomena observed in large A–A collisions have been identified by now also in small pp and p–Pb collisions”）；2025 O-O：ALICE（官方公告）逐字 “The evidence of parton energy loss we have established in oxygen collisions is 4.9σ away from the null hypothesis” [一手逐字·复算]。
- 名号层：四档量词逐环升格，链逐环可考——BNL 2005 通稿（Aronson 逐字 “the most nearly perfect liquid ever observed“，量词域 RHIC 观测）→ Nature News 2005（Mark Peplow 标题 “Early Universe was a liquid”＋正文首句 “The Universe consisted of a perfect liquid in its first moments“——升格两档到宇宙域）→ Nagle 等 2018 Ann. Rev. 摘要逐字 “thereby establishing this system of quarks and gluons as the most perfect fluid in nature“（宇宙域，与 Shuryak “known” 差半档）；KSS 界的猜想量词（’may serve as a lower bound’）在消费层被读成「完美液体已证等于 KSS 界」（量词跳第二层）；虚无化（’hydro 是拟合无信息’）消费层两组定向检索阴性（G3）[一手逐字·检索日志在案]。
反向红跳同样跑完：「hydro 是拟合无信息」不立（JETSCAPE credibility interval 与模型平均给了量化约束；PRC 姊妹篇自报 particlization 依赖——模型敏感性被写进量词，而非被掩盖）；「QGP 不是液体」不立（Shuryak/Gyulassy-McLerran/STAR 三线全部把 sQGP 定位为流体描述成功＋非零小 η/s 的状态——是「液体」还是「气体」不是说法之争，是 transport 性质之争）；「KSS 界已被 QGP 违反」不立（1/4π=0.0796 vs JETSCAPE 0.1——比值 1.26，在 credible 区间内；无违反声明的原文）；「小系统有 PbPb 同等 QGP」不立（ALICE 2024 ‘none of the models can fully capture’＋Nagle 2024 ‘minimal droplet … falsified’——第三图景——Fiete 与 Wiedemann 同一段的「但书」：’However, the identification of such observations…’ [一手逐字]）。四句完整承重见第七章。
第一章 守真锚：QGP 在物理学里是什么、为什么需要流体描述
先把「QGP 是重离子物理的承重实体」钉死，再谈「完美液体」的量词。
1.1 sQGP 命名件（Gyulassy-McLerran 2005）
Gyulassy & McLerran 2005（arXiv:nucl-th/0405013，Nucl. Phys. A 750, 30–43，全文落盘）逐字：
“These RHIC discoveries and those at the SPS/CERN pave a clear path … establish empirically that a special form of strongly coupled QGP (sQGP) exists with remarkable properties.” “This leads us to conclude that the matter produced at RHIC is a strongly coupled Quark Gluon Plasma (sQGP) contrary to original expectations that were based on weakly coupled plasma estimates.” [一手逐字]
分寸：sQGP 的强耦合判断来自 v2 数据（白皮书链），不是来自 AdS/CFT 对偶——这条分界在原文里清楚，名号层要称它的重。
1.2 「液体」是什么意思
Shuryak 2004（PPNP 53, 273）逐字：”The data are in fact in much better agreement with the predictions based on ideal hydrodynamics, an effective theory based on the opposite picture of very strong interaction and very small mean free paths.”——「液体」的物理内容是「平均自由程远小于系统梯度尺度」（局部平衡），不是普通流体的化学属性。STAR 白皮书逐字把这件事写成量词（2.1）：ideal hydrodynamics 的 EOS 输入（杀格点 QCD）＋初始几何＋冻结出条件，共同支撑了「重现 v2」的推理链。该链的每一环都是模型——这正是后面 η/s 提取必须走贝叶斯的原因。
第二章 事件链层：RHIC 2005 白皮书的量词
2.1 STAR 白皮书
Adams 等（STAR 协作）”Experimental and Theoretical Challenges in the Search for the Quark Gluon Plasma: The STAR Collaboration’s Critical Evaluation of RHIC Results”（Nucl. Phys. A 757, 102–183；arXiv:nucl-ex/0501009，全文落盘）。逐字：
“the collision’s early stages are dominated by very strongly interacting matter with very short constituent mean free paths – essentially a ‘perfect liquid’ [107], free of viscosity.” “Similar QGP-based calculations that invoke ideal hydrodynamics up to freezeout overpredict the elliptic flow for more peripheral RHIC collisions and for lower energies. One possible interpretation of this observation is that thermalized, strongly interacting QGP matter dominates near-central Au+Au collisions at or near the full RHIC energy.” “In assessing these claims, it is critical to ask how unique and robust the hydrodynamics account is in detail.” [一手逐字]
量词三层：①引用 [107] = Teaney（理想流体），与 KSS 无关；②自带外推边界（peripheral/低能量失效）；③白皮书自问「unique and robust」——量词域是「中心大系统、高能量、特定初始条件下近似理想」，不是普适。
2.2 PHENIX 白皮书
Adcox 等（arXiv:nucl-ex/0410003，Nucl. Phys. A 757, 184–283）。逐字：
“All the above models have assumed ideal hydrodynamics, i.e. with no viscosity and zero mean free path. Non-zero viscosity in the QGP reduces v2 … and since the early hydro calculations from Teaney and Huovinen reproduced the magnitude of the pion v2 data, it is often stated that viscosity of the matter at RHIC must be small. However recent calculations from Hirano (3D) and Kolb …” [一手逐字]
“often stated” 的量词在 PHENIX 白皮书内部就自带——它是领域共识的转述（陈述非断言），且同段立刻写明 Hirano/Kolb 的分歧——v2 对 hydro 输入的敏感度从白皮书起就在案。
2.3 BRAHMS 白皮书（两件新物质）
Arsene 等（arXiv:nucl-ex/0410020，Nucl. Phys. A 757, 1–27，DOI Crossref ✓）。正式标题 “Quark–gluon plasma and color glass condensate at RHIC? The perspective from the BRAHMS experiment”——标题自带问号。BRAHMS 白皮书的量词域是「两件」，不是「完美液体」单一命题——2005 年四协作是共同署名一捆论文（Nucl. Phys. A 757 专刊），但各自的主张并不完全相同。
第三章 理论层：KSS 界与 Shuryak 综述
3.1 KSS 2005：类内精确值＋类外猜想
Kovtun, Son & Starinets（PRL 94, 111601；arXiv:hep-th/0405231，全文落盘）。摘要逐字：
“The ratio of shear viscosity to volume density of entropy can be used to characterize how close a given fluid is to being perfect. Using string theory methods, we show that this ratio is equal to a universal value of ħ/4πkB for a large class of strongly interacting quantum field theories whose dual description involves black holes in anti–de Sitter space. We provide evidence that this value may serve as a lower bound for a wide class of systems, thus suggesting that black hole horizons are dual to the most ideal fluids.” [一手逐字]
正文猜想段逐字：”We speculate that the ratio η/s has a lower bound η/ħ = 1/4πkB s for all relativistic quantum field theories at finite temperature and zero chemical potential. The inequality is saturated by theories with gravity duals.” 自承段逐字：”We do not have an explanation for the constancy of η/s in these theories based on field-theoretical arguments alone.” [一手逐字]
量词三层：①类内（AdS/CFT 可解类）是精确结果；②外推到所有相对论 QFT 是 ‘We speculate’ 的猜想；③连在可解类内也没有「从场论单独解释常数的说法」（自承）。复算：1/4π = 0.0796（捆 6 复算）。
3.2 Shuryak 综述的量词
Shuryak 2004（PPNP 53, 273–303）逐字：
“The data from RHIC indicate robust collective flows, well described by hydrodynamics with expected Equation of State. The transport properties turned out to be unexpected, with very small viscosity.” “The data are in fact in much better agreement with the predictions based on ideal hydrodynamics, an effective theory based on the opposite picture of very strong interaction and very small mean free paths.” “surprisingly small. In fact, QGP is the most perfect fluid known, since the same ratio is greater than 1 for most liquids.” [一手逐字]
量词域：“known”（观测过的）——与 Nagle 2018 摘要的 “in nature” 差半档，与 Nature News 的 “The Universe consisted of” 差两档。四档量词在原文里都能追到，是本题名号层的独占核心。
第四章 实验层（上）：η/s 的贝叶斯提取
4.1 JETSCAPE 2021 PRL
Everett 等（PRL 126, 242301；arXiv:2010.03928，全文落盘）。摘要逐字：
“Using combined data from the Relativistic Heavy Ion and Large Hadron Colliders, we constrain the shear and bulk viscosities of quark-gluon plasma (QGP) at temperatures of ∼150–350 MeV. We use Bayesian inference to translate experimental and theoretical uncertainties into probabilistic constraints for the viscosities. With Bayesian model averaging we propagate an estimate of the model uncertainty generated by the transition from hydrodynamics to hadron transport in the plasma’s final evolution stage, providing the most reliable phenomenological constraints to date on the QGP viscosities.” [一手逐字]
正文量化段逐字：“In the deconfinement region, the most likely values for η/s are of order 0.1; ζ/s also favors values around 0.05−0.1 in that region”；高温端自报逐字：“Importantly, at high temperature, the posteriors are close to the 90% credibility ranges of the prior (gray shaded region): this strongly suggests that measurements used in this work do not constrain the viscosities significantly for temperatures ≳ 250 MeV.”；先验警告逐字：“narrower posterior credible intervals are not automatically more accurate”。
本篇复算：1/4π = 0.0796；JETSCAPE η/s ≈ 0.1 对 KSS 界比值 = 1.26（捆 6 复算输出）——「与 KSS 界同一量级」是精确的，但不是「等于 KSS 界」。
4.2 Paquet 2024 综述的七分析对比
Paquet 2024（J. Phys. G 51, 103001；arXiv:2310.17618，快照逐字）：”a systematic comparison of seven recent Bayesian analyses that studied quark-gluon plasma properties, such as the shear and bulk viscosities. The latter comparison is used to illustrate sources of differences in analyses, and what it can teach us for future studies.”——七分析的后验带不完全重合是命门层的实证素材（倍数差与模型链有关，非数据噪声）。
第四章 实验层（下）：小系统事件链与 2025 O-O
4.1 CMS 2010 pp 双脊（7 TeV）
Khachatryan 等（arXiv:1009.4122）：high-multiplicity pp 出现长程近边关联（ridge）。摘要逐字：”long-range (2 < |Δη| < 4), near-side (∆φ ≈ 0) structure emerges … in high-multiplicity events”。量词是 observation of … correlations（关联的观察），非「collectivity 已证」。
4.2 CMS 2013 pPb 双脊
Chatrchyan 等（Phys. Lett. B 718, 795；arXiv:1210.5482，全文落盘）。摘要逐字：”This is the first observation of such correlations in proton-nucleus collisions, resembling the ridge-like correlations seen in high-multiplicity pp collisions at √s = 7 TeV and in AA collisions over a broad range of center-of-mass energies.” 关键差异句逐字：”the absolute ridge yield in pPb is significantly larger than in pp collisions of the same particle multiplicity.”——pPb 的双脊比 pp 更强，是「小系统反直觉」的实锚。竞争解释自带逐字：”The ridge-like structure in pPb collisions was also predicted to arise from initial state gluon correlations in the color-glass condensate framework … although it remains to be seen if the large associated yield seen in the highest multiplicity selection can be quantitatively reproduced in the calculation.”
4.3 CMS 2016 pp collectivity
Khachatryan 等（Phys. Lett. B 765, 193；arXiv:1606.06198，快照落盘）。结论逐字：”These observations provide strong evidence supporting the interpretation of a collective origin for the observed long-range correlations in high-multiplicity pp collisions.”——量词是 “strong evidence supporting … interpretation”，不是 “demonstrated”；分类句自带逐字：”These include initial-state gluon correlations without final-state interactions or, similar to what is thought to occur in AA systems, hydrodynamic flow that develops in a conjectured high-density medium.”
4.4 ALICE 2024 低多重 pp
Acharya 等（PRL 132, 172302；arXiv:2311.14357，全文落盘）。摘要逐字：”This study extends the measurements of the ridge yield to the low multiplicity region, where in hadronic collisions it is typically conjectured that a strongly-interacting medium is unlikely to be formed. The precision of the new low multiplicity results allows for the first direct quantitative comparison with the results obtained in e+e− collisions … the measured ridge yields in pp collisions are substantially larger than the limits set in e+e− annihilations.” 结论逐字：“none of the models can fully capture the physics underlying the emergence of the near-side associated yield in low multiplicity pp collisions. This suggests that the mechanisms for ridge yield production in very small hadronic collisions have not been understood and more theoretical work is needed.” 显著性逐字：”The resulting significance of the pp measurement to be above the one in e+e− collisions … is 3.8σ (using cpp) and 5.0σ (using c1ee). At √s = 183–209GeV, these significances are 5.0σ (using cpp) and 6.3σ (using c2ee).” [一手逐字]
4.5 Nagle 2018 与 Grosse-Oetringhaus-Wiedemann 2024
Nagle 等 2018（arXiv:1801.03477，快照逐字）：”The bulk motion … is well described in terms of nearly inviscid hydrodynamics, thereby establishing this system of quarks and gluons as the most perfect fluid in nature. A revolution in the field is under way, spearheaded by the discovery of similar collective, fluid-like phenomena in much smaller systems …”——半档升格（vs Shuryak ‘known’）。
Grosse-Oetringhaus & Wiedemann 2024（arXiv:2407.07484，全文落盘）三图景分类逐字：”Can both pictures be correct? Is there a critical size or density at which a QCD system produced in hadronic collisions transits from free-streaming to fluid-dynamic behavior? Can precursors of fluid dynamics be identified and could they inform us about the QCD non-equilibrium dynamics that leads to fast hydrodynamization and equilibration?”
最小液滴被证伪句逐字：“In this ‘minimal droplet’ model, the HEP phenomenology of pp collisions … and the HIP phenomenology … could have lived side-by-side within limited, mutually exclusive regions of validity. This picture is falsified.” 同段但书逐字：“However, the identification of such obser[vations] …”（限后文——引证时保留完整段）。
4.5 2025 O-O 事件
ALICE 2026 公告（官方，b3-alice-oo-2026.txt）逐字：
“The collaboration has found evidence for parton energy loss – one of the clearest signatures of quark–gluon plasma formation – in collisions of oxygen nuclei. … The evidence of parton energy loss we have established in oxygen collisions is 4.9σ away from the null hypothesis, meaning a 1 in 2 million chance of being an accident.” “extending this hallmark signature of quark-gluon plasma formation to the smallest nuclear collision system explored so far.” [一手逐字]
量词三层：①4.9σ；②OO 系统内；③以 pO 为对照扣除冷核效应（”While proton–oxygen collisions are expected to exhibit many of the same nuclear effects as oxygen–oxygen collisions, they are not expected to produce a medium large enough to cause substantial parton energy loss”）。不含 pp。ALICE 2026 轻离子综述（arXiv:2604.07184，全文落盘）逐字：”Experimental evidence of the suppression of neutral pion yields in OO collisions relative to the proton–proton baseline is also discussed.”
第五章 命门：什么能终结这场分歧
命门不是「再测一次 v2」，而是三条已被写下的判据：
- 贝叶斯 credibility 区间的温度结构：JETSCAPE 自报 ‘do not constrain the viscosities significantly for temperatures ≳ 250 MeV’——若未来数据（Run 3 OO 等）收紧高温端，η/s 的温度依赖将获得独立约束；若仍不收紧，KSS 界与 QGP 的关系将永远是外推。
- 小系统的机制判定：CGC 初始态关联 vs final-state hydro 之争在 ALICE 2024 逐字 ‘none of the models can fully capture’——改变判断的证据：新的初始态模型（如带 sub-nucleonic 波动的 IP-Glasma）与 hydro 在同一批低多重 pp 数据上可区分。
- O-O 的后续谱系：ALICE 2026 综述已把 v2{4}/v3{2} 与 R_AA 三个签名全放上桌面；若 Ne-Ne 与 O-O 的三签名在统一 hydro 框架下同时复现，「最小液滴」的下界将正式被钉在 16O（≈N_part~32）——即「完美液体」的适用域有了实证下界。
第六章 名号层：三条链逐环称重
6.1 链 A：2005 媒体链
A0 事件锚：BNL 官方通稿（ScienceDaily 转载，b5-sciencedaily-2005.txt）标题 “RHIC Scientists Serve Up ‘Perfect’ Liquid: New State Of Matter More Remarkable Than Predicted”。
A1 Nature News 2005-04-19（Mark Peplow）：标题 “Early Universe was a liquid“——正文首句 “The Universe consisted of a perfect liquid in its first moments, according to results from an atom-smashing experiment.”——升格两档：从「RHIC 观测到的 10^-23 s 液滴」到「宇宙最初时刻」。同篇自带分寸（正文内）：”we still don’t know enough about their quark-gluon liquid”——分寸段在同篇里，与首句构成内张力。
A2 BBC 2005-04-19：标题 “Early Universe was ‘liquid-like'”——’liquid-like’ 比Nature News 低半档（带引号，量词域在事件而非宇宙全域）；Bass 引语逐字保留 (‘very much like an ideal fluid … very strongly interacting’)；分寸句自带逐字：”the RHIC scientists are reluctant to make a firm declaration that a QGP has been achieved.”
A3 ScienceDaily（BNL 转载）：Aronson 逐字 “the most nearly perfect liquid ever observed“（量词域：RHIC 观测）；自带分寸段逐字 “While RHIC scientists don’t have a direct measure of viscosity, they can infer from the flow pattern that, qualitatively, the viscosity is very low, approaching the quantum mechanical limit.”
6.2 链 B：白皮书量词（对照）
- STAR 白皮书：’essentially a “perfect liquid” [107], free of viscosity‘（量词绑定 ideal hydrodynamics 的自由粘度=0）
- PHENIX 白皮书：’it is often stated that viscosity of the matter at RHIC must be small’（陈述非断言）
- Shuryak 2004：’QGP is the most perfect fluid known‘（观测域）
- Nagle 2018 Ann Rev 摘要：’the most perfect fluid in nature‘（宇宙域，半档升格）
四档量词谱系（从严格到宽）：’ever observed’ < ‘known’ < ‘in nature’ = ‘The Universe consisted of’。四档都能在原文里追到，是本题名号层的独占核心。
6.3 虚无化方向：两组定向检索，消费层无靶
查询词与结果在捆 5 笔记（’hydrodynamics fitted no information’ / ‘QGP 根本不是液体’）。学术侧的反虚无由三条真实线承担：ALICE 2024 ‘none of the models can fully capture’、Nagle 2024 ‘minimal droplet … falsified’、JETSCAPE credibility interval（量化）——三线都真实在案，不构成虚无化；反向红跳不立。
第七章 对称红队：四句双向称重
7.1 升格方向
- 「η/s = 1/4π 已被证明」——不立。 KSS 摘要 ‘may serve as a lower bound’＋正文 ‘We speculate’＋自承 ‘We do not have an explanation … based on field-theoretical arguments alone’ 三句逐字；QCD 是否在 KSS 的 ‘wide class’ 内是猜想。
- 「完美液体已被实验证明」——不立（在量词域内不立）。 STAR 白皮书自带 ‘One possible interpretation’；PHENIX ‘it is often stated’；JETSCAPE 的高温端先验主导；η/s 是贝叶斯提取，不是直接测量。
- 「小系统有 PbPb 同等 QGP」——不立（作为已证命题）。 ALICE 2024 ‘none of the models can fully capture’；Nagle 2024 三图景＋’minimal droplet … falsified’＋有但书段；2025 O-O 4.9σ 的量词是 ‘smallest nuclear collision system explored so far’，不含 pp。
7.2 虚无方向
- 「完美液体是媒体通稿」——不立。 BNL 通稿量词是 ‘ever observed’（观测域）；Nature News 保留 ‘still don’t know’ 分寸段；BBC 保留 RHIC ‘reluctant to make a firm declaration’——媒体链不是单向升格。
- 「hydro 是拟合无信息」——不立。 贝叶斯提取给出 credibility interval 与模型平均（Paquet 2024 七分析对比在案）；Shuryak/Gyulassy-McLerran 的强耦合判断来自 v2 的量化对比，有独立路径（重子突变对 QGP 的额外热化延迟等，经 Gyulassy-McLerran 逐字）。
- 「KSS 界被 QGP 违反」——不立（作为已证命题）。 复算：JETSCAPE η/s≈0.1 对 KSS 界 1/4π≈0.0796 的比值 1.26；在 credibility 区间内，无违反声明；若违反需先验更强的 η/s 上限。
7.3 红队净账
升格方向的最强真核：RHIC 观测到接近理想流体的集体流（四协作白皮书）；KSS 在 AdS/CFT 类内是精确结果；η/s 贝叶斯提取在 150–250 MeV 窗口内可信。虚无方向的最强真核：KSS 外推是猜想；高温端先验主导；小系统机制未完全理解（ALICE 2024 逐字）；’perfect liquid’ 的量词在四档之间漂移。两边真核不冲突，因为它们落在不同的层。越界的从来不是某一层的结论，而是把某一层的结论搬进另一层：把「RHIC 观测域的 ‘nearly perfect’」搬进「宇宙最初时刻」，把「猜想」搬成「定理」，把「credibility interval」搬成「模型拟合无信息」。
第八章 结论及其适用边界
- 事件链层裁决：RHIC 2005 白皮书量词绑定「ideal hydrodynamics 的自由粘度=0」（引用 Teaney），自带外推边界（peripheral/低能量处失效）；PHENIX ‘often stated’ 是转述非断言；sQGP 命名件定位在 v2 → 强耦合链。适用边界：2005 白皮书是三年 RHIC 数据的总结，非最终判决。
- 理论层裁决：KSS 1/4π 是「AdS/CFT 类内精确值＋类外猜想」（’may serve as a lower bound’＋’We speculate’＋自承无场论解释）；Shuryak ‘nearly ideal fluid’ 量词是「robust collective flows, well described by hydrodynamics」。适用边界：KSS 在 QCD 是否适用未证。
- 实验层裁决：η/s 贝叶斯提取 ‘of order 0.1’（credibility interval），高温端先验主导自报；小系统事件链 pp→pPb→collectivity→低多重 pp ridge →’minimal droplet falsified’；2025 OO jet quenching 4.9σ 在 OO 域内。适用边界：贝叶斯链的模型依赖（particlization）；小系统机制之争未结。
- 名号层裁决：四档量词（’ever observed’/’known’/’in nature’/’The Universe consisted of’）逐环可考；KSS 量词跳为第二层越界；虚无化消费层阴性。适用边界：只覆盖已落盘文本与检索日志。
第九章 仍不确定什么，什么证据会改变判断
仍不确定（按承重排序）：
- KSS 界是否在 QCD 内适用。改变判断的证据：有严格场论证明 1/4π 下界（或找到违反例——若违反则「完美液体」量词需重写）。
- η/s 在高温端（≥250 MeV）的真实值。改变判断的证据：Run 3 OO 数据收紧高温端后验（或不同 particlization 模型的一致化）。
- 小系统的机制。CGC 初始态关联 vs final-state hydro 的相对权重；若新的初始态模型能同时描述 ALICE 2024 低多重数据与 PbPb，命门关闭；反之若 hydro 成功同时覆盖，则「小系统有液滴」正式入册。
- O-O 的后续：Run 3 OO 数据 (2025-07) 尚在分析；若 OO 的 η/s 提取（已在计划中）给出与 PbPb 一致或不同的 credibility 区间，「完美液体」的量词域将获得新的实证下界。
- 名号层空白侧的稳定性。虚无化消费层当前空位；若出现有影响力的「hydro 是模型拟合」类文本，第六章的不对称结论需复查。
第十章 关键来源与核验范围
事件链层：STAR 白皮书（Nucl. Phys. A 757, 102–183，arXiv:nucl-ex/0501009，A 全文）；PHENIX 白皮书（Nucl. Phys. A 757, 184–283，arXiv:nucl-ex/0410003，A 全文）；BRAHMS 白皮书（Nucl. Phys. A 757, 1–27，DOI 10.1016/j.nuclphysa.2005.02.130，arXiv:nucl-ex/0410020，A 全文）；Gyulassy–McLerran 2005（Nucl. Phys. A 750, 30–43，arXiv:nucl-th/0405013，A 全文）。
理论层：Shuryak 2004（PPNP 53, 273–303，DOI 10.1016/j.ppnp.2004.02.025，摘要+核心段快照 ◐）；KSS 2005（PRL 94, 111601，DOI 10.1103/PhysRevLett.94.111601，arXiv:hep-th/0405231 全文落盘，A）。
η/s 贝叶斯：JETSCAPE 2021（PRL 126, 242301，DOI 10.1103/PhysRevLett.126.242301，arXiv:2010.03928 全文落盘，A）；JETSCAPE PRC 103, 054904（DOI 10.1103/PhysRevC.103.054904，快照 ◐）；Bernhard 等 2019（Nature Physics 15, 1113–1117，快照 ◐，经 par.nsf.gov 题目/卷期/页码亲核）；Paquet 2024（J. Phys. G 51, 103001，DOI 10.1088/1361-6471/ad6a2b，快照 ◐）。
小系统事件链：CMS 2010 pp 双脊（JHEP 1009:091，arXiv:1009.4122，A 全文）；CMS 2013 pPb 双脊（Phys. Lett. B 718, 795–814，DOI 10.1016/j.physletb.2012.11.025，arXiv:1210.5482 全文落盘，A）；CMS 2016 pp collectivity（Phys. Lett. B 765, 193–220，DOI 10.1016/j.physletb.2016.12.009，arXiv:1606.06198 快照 ◐）；ALICE 2024 低多重 pp（PRL 132, 172302，DOI 10.1103/PhysRevLett.132.172302，arXiv:2311.14357 全文落盘，A）；Nagle 2018（Ann. Rev. Nucl. Part. Sci. 68，arXiv:1801.03477 全文落盘，A）；Grosse-Oetringhaus–Wiedemann 2024（arXiv:2407.07484 全文落盘，A）；Strickland 2019（Nucl. Phys. A，DOI 10.1016/j.nuclphysa.2018.09.071，快照 ◐）；Nagle 等 2017 Origins（arXiv:1704.03914 全文落盘，A）。
O-O 2025：ALICE 官方公告 2026（b3-alice-oo-2026.txt，A）；ALICE Oxygen Run 2025 新闻（b3-alice-oo-jetquench.txt，A）；ALICE 轻离子 2026 综述（arXiv:2604.07184 全文落盘，A）。
名号层（4 份原件落盘，逐字引于第六章）：Nature News 2005-04-19（b5-nature-news-2005.txt）；BBC 2005-04-19（b5-bbc-2005.txt）；ScienceDaily 2005-04-25/BNL 通稿（b5-sciencedaily-2005.txt）；ABC 2005-04-19（b5-abc-2005.txt）。
核验范围声明：全部书目经 Crossref/INSPIRE/arxiv.org 逐条亲核（卷期页码以 Crossref 为准）；课题书凭记忆写的 2 个标识符当场证伪改正（附录 A）；关键复算（1/4π=0.0796、比值 1.26）脚本与输出落盘；STAR/PHENIX 白皮书 DOI 经 Crossref 限流未逐一亲核（arXiv 版本引）；CMS pPb/collectivity 原件以 arXiv 快照件为限（正文引出版版标题并登记）；Shuryak 2004 全文 PDF 未取（机构页+doi.org 摘要/核心段快照承重）。
附录 A 课题书勘误登记（2 处）
- Gyulassy–McLerran 2005 正式刊出版标题：初稿按记忆写 “New Forms of Matter Created in Heavy-Ion Collisions at RHIC”（Nucl. Phys. A 750, 30–43）——arXiv 版标题实为 “New Forms of QCD Matter Discovered at RHIC“（经 arXiv:nucl-th/0405013 亲核）；正文按 arXiv 版本引。
- JETSCAPE PRL 卷号：初稿记 127 卷——实为 126（10.1103/PhysRevLett.126.242301，2021-06-17）。
附录 B 诚实空位登记
- G1（虚无化消费层空位）：「hydro 是模型拟合无信息/QGP 根本不是液体」方向的消费层具体文本，两组定向检索未命中（捆 5 笔记）。
- G2（中文链未取原文）：中文「完美液体」消费件经检索定位线索但未直接取得具体原文，正文未引；若后续取得需回捆 5。
- B3（STAR/PHENIX 白皮书 DOI 未逐一亲核）：Crossref 限流；arXiv 版本引，正式刊出版按同卷期补。
- B4（Shuryak 2004 全文未取 PDF）：Stony Brook 机构页+doi.org 摘要与核心段快照承重；正文引用其核心段（’ideal hydrodynamics’/’most perfect fluid known’）逐字；未读其全文后半部分（Maldacena 对偶讨论段）。
- B5（CMS collectivity pPb/pp 原件为 arXiv 快照）：JHEP/PRLB 出版版全文未直取，正文引出版版标题并登记。
- B6（Nagle 2024 Ann Rev 出版版未取）：arXiv:2407.07484 承重（题目/作者/核心句逐字）；正式 Ann Rev 刊出版卷期页码未核（空位登记）。
- B7（Shuryak 2004 侧 Maldacena 讨论段未精读）：综述的 AdS/CFT 应用方向段未展开；本题只在弦论篇 boundary 处引用不重审。
- B8（KSS 后续违反构造未精读）：KSS 界是否存在 QCD 外的违反，未做完整文献调查；正文引用 KSS 原文的 ‘We speculate’ 与自承段即足量。
- B9（heavy-ion 束能量扫描 BES-II 未在分捆内）：分界外；QCD 相变临界点为独立专题。
- B10（Bernhard Nat Phys 2019 全文 PDF 未下载）：题目/作者/卷期页码经 par.nsf.gov 亲核；全文内容以 NSF 存档 PDF 快照的标题级承重，未引数值。