§3 结果(论文体)§3 Results (paper style)

评审更正(2026-10-15 22:2xZ,Claude):红队 RT-09 已完成:PN 没有 MOS 那样的平面梯度(2σ < 0.17 PW/′),但 PN 的径向定标未经检验;PN 径向残差 −0.245 PW/′ 即可把 PN 单独的晕上限抬到 7.2–14.1e-5 cm⁻³,所以 PN 单独不能独立排除平衡晕(L12 依赖 PN 与 FXT 一致);L21 被模板系统误差削弱约 0.4 PW,仍为 CANDIDATE。下文"RT-09 运行中 / 待定"以此为准。

Review correction (2026-10-15 22:2xZ, Claude): red team RT-09 is done: PN has no MOS-like plane gradient (2σ < 0.17 PW/′), but its radial calibration is untested; a PN radial residual of −0.245 PW/′ lifts the PN-only halo limit to 7.2–14.1e-5 cm⁻³, so PN alone does not independently exclude the balance halo (L12 rests on PN–FXT agreement); L21 is weakened by ~0.4 PW of template systematics and stays CANDIDATE. This supersedes "RT-09 running / Pending" below.

读前须知:单位与状态标签Before you read: units and status tags

距离 D = 19 Mpc,1 角分(′)= 5.53 kpc。面亮度单位 1 PW = 1e-7 个 XSPEC APEC 归一化每平方角分(0.3 keV 等离子体),对应 ∫ne nH dl = 1.49e15 cm⁻⁵。举例:一个 5 PW 的壁面亮度 ≈ 每平方角分 5e-7 个 apec 归一化。热压力 P = 2.3 n_H kT;举例:nH = 5.5e-5 cm⁻³、kT = 0.2 keV 时 P = 4.05e-14 dyn cm⁻²。状态标签(I021):MEASURED = 直接测量(含场散误差);INFERRED = 依赖模型;CONDITIONAL = 依赖明示假设;CANDIDATE = 非探测;WITHDRAWN = 不要引用。坐标架:+mnr = ENE(PA 75°),−mnr = WSW(PA 255°),盘方位角 PA 165°。

Distance D = 19 Mpc, 1 arcmin (′) = 5.53 kpc. Surface-brightness unit: 1 PW = 1e-7 XSPEC APEC norm per arcmin² of a 0.3 keV plasma, equivalent to ∫ne nH dl = 1.49e15 cm⁻⁵. Example: a wall brightness of 5 PW ≈ 5e-7 apec norm per arcmin². Thermal pressure P = 2.3 n_H kT; example: with nH = 5.5e-5 cm⁻³ and kT = 0.2 keV, P = 4.05e-14 dyn cm⁻². Status tags (I021): MEASURED = direct, with field-scatter errors; INFERRED = model-dependent; CONDITIONAL = rests on a stated assumption; CANDIDATE = not a detection; WITHDRAWN = do not cite. Frame: +mnr = ENE (PA 75°), −mnr = WSW (PA 255°), disk PA 165°.

来源Source: .agent/jobs/2026-10-15-S09-FACTS.md; I021_s09_paper_plan_v2.md

3.1 数据质量结果(科学的根基)Data-quality results the science rests on

五项数据质量结果决定了后续所有测量的口径(L1–L4)。MEASURED (1) 从 ODF 重新处理恢复了曝光,逐相机做了耀发 GTI 剔除,风区 PN/MOS 亮度比 1.07–1.12(L1)。(2) MOS1 CCD4 的软超出会制造一个假的 ~1 keV 成分,因此 MOS1 退出所有风区光谱(L2)。(3) MOS1 与 MOS2 都带一个随卷帘角变化的望远镜坐标架大尺度梯度(N−S 0.7–1.2 PW/′),PN 干净;因此 XMM 在 ≳5′ 的工作只用 PN,或给每台 MOS 加平面 nuisance 项(L2b)。(4) FXTDAS/CALDB v1.30 的 FXT 点源谱与 XMM 在 0.4–1 keV 一致到 0–10%(v1.20 最多低 37%)(L3)。(5) Chandra 目录中 19 个条目是弥漫气体而非点源,保留在图中(L4)。

Five data-quality results set the conventions of every later measurement (L1–L4). (1) Reprocessing from ODFs recovers the exposures; camera-level flare GTIs are applied; the wind-region PN/MOS brightness ratio is 1.07–1.12 (L1). (2) A soft excess on MOS1 CCD4 makes a false ~1 keV component, so MOS1 is excluded from all wind spectra (L2). (3) MOS1 and MOS2 both carry a roll-dependent, telescope-frame large-scale gradient (N−S 0.7–1.2 PW/′); PN is clean; XMM work beyond ≳5′ therefore uses PN only, or a plane nuisance per MOS camera (L2b). (4) FXTDAS/CALDB v1.30 FXT point-source spectra match XMM to 0–10% at 0.4–1 keV (v1.20 was up to 37% low) (L3). (5) 19 Chandra-catalogue entries are diffuse gas, not point sources, and stay in the maps (L4).

S09 E085: north minus south pointing-group difference maps for MOS1, MOS2 and PN, with plane fits
S09 E085。XMM 北组(2017-11)与南组(2018-04)地图之差:差异只存在于 MOS1/MOS2(望远镜坐标架平面,~1.1–1.2 PW/′),PN 干净(0.07 ± 0.05 PW/′)。S09 E085. The XMM N-group (2017-11) minus S-group (2018-04) difference maps: the effect sits in MOS1/MOS2 only (a telescope-frame plane, ~1.1–1.2 PW/′); PN is clean (0.07 ± 0.05 PW/′).

来源Source: cognition-os/experiments/E085_s09_xmm_ns_pointing_systematic.md; E083 handover; artifacts/s09_e085_xmm_ns/n3079_s09_e085_xmm_ns.png

3.2 ENE 轴上的背景星系团(L5)The background cluster on the ENE axis (L5)

MEASURED ENE 小轴上 h ≈ 4.3–6.5′(24–36 kpc)的拉长 X 射线条带不是风气体,而是红移 z = 0.593 的背景星系团 WH24 J100242.9+554158(M500 = 1.4e14 M⊙,13 个成员;SDSS 光谱 z = 0.59323/0.59357)。XMM 与 FXT 都看到它:形状延伸(XMM σ 44″ × 17.5″,PSF 5.5″,2ΔlnL = 64),谱上需要 kT ≈ 2.3 keV(z 0.593)的热成分(占 0.4–1.25 keV 超出的 57–84%)。它与小轴方向一致是巧合(chance ~0.2)。所有风分析都用 1.5′ 半径掩罩它(E090)。掩罩后,ENE 轴带亮度从无掩罩时的 4.5–9.3 PW(4.75–6.75′)降到 8.0/8.8 PW(3.75/4.25′)、7′ 以外 1–3 PW;"ENE 锥到 39 kpc 是填满的"这一旧结论是星系团造成的(已撤回)。

MEASURED The elongated X-ray strip on the ENE minor axis at h ≈ 4.3–6.5′ (24–36 kpc) is not wind gas. It is the hot gas of a background galaxy cluster at z = 0.593, WH24 J100242.9+554158 (M500 = 1.4e14 M⊙, 13 members; SDSS spectra z = 0.59323/0.59357). XMM and FXT both see it: extended shape (XMM σ 44″ × 17.5″ against a 5.5″ PSF, 2ΔlnL = 64), and the spectrum needs a hot component at kT ≈ 2.3 keV (z 0.593; 57–84% of the 0.4–1.25 keV excess). Its alignment with the minor axis is a coincidence (chance ~0.2). Every wind analysis masks it with a 1.5′ circle (E090). With the mask, the ENE axis strip falls from 4.5–9.3 PW (unmasked, 4.75–6.75′) to 8.0/8.8 PW at 3.75/4.25′ and 1–3 PW beyond 7′; the old "filled ENE cone to 39 kpc" was the cluster (withdrawn).

ENE minor-axis strip brightness with and without the cluster mask, joint PN plus FXT
ENE 小轴带亮度(联合 PN+FXT),黄色带为 1.5′ 星系团掩罩;灰点为无掩罩的 v9 值。数据:v10_data.json。ENE minor-axis strip brightness (joint PN+FXT); the yellow band is the 1.5′ cluster mask, grey points the unmasked v9 values. Data: v10_data.json.
E090: XMM, FXT and Chandra images of the cluster, optical red-sequence galaxies, spectrum and the axis minus walls test
E090。上:XMM/FXT 光子图与 2σ 形状椭圆;下:Legacy Survey 图像 + 红序星系、点谱、有/无掩罩的轴−壁检验。E090. Top: XMM/FXT photon images with 2σ shape ellipses; bottom: the Legacy Survey image with red-sequence galaxies, the spot spectrum, and the axis−walls test with and without the mask.

来源Source: XMMLineMap cognition-os/experiments/E090_n3079_ene_axis_feature_background_cluster.md; artifacts/s09_web_v10/v10_data.json

3.3 形态:X 形双极风(L6)Morphology: an X-shaped bipolar wind (L6)

MEASURED 0.3 keV 面亮度图显示一对沿小轴的双极风,X 形,逐历元(2017-only、2018-only)与逐仪器(XMM、FXT、联合)都可复现;FXT 复现 XMM 形态到 ~6′(E076)。灰圈为已扣除的点源(40″ 掩罩),黄圈为星系团掩罩。最终图集(C1:全部用 PN 或 PN+FXT 联合图重建)尚未完成,是论文 I 图 1–4 的前置条件。

MEASURED The 0.3 keV surface-brightness maps show a bipolar pair of winds along the minor axis, X-shaped, reproduced per epoch (2017-only, 2018-only) and per instrument (XMM, FXT, joint); FXT reproduces the XMM morphology to ~6′ (E076). Grey circles mark the subtracted point sources (40″ masks), the yellow circle the cluster mask. The final map set (C1: everything rebuilt on PN or the PN+FXT joint map) is not yet done and gates Paper I figures 1–4.

0.3 keV surface-brightness map, joint XMM PN plus FXT, 16 arcmin half-field
联合 PN+FXT 0.3 keV 图(16′ 半视场)。来源:s09_web_v10/map_jointpn.png。Joint PN+FXT 0.3 keV map (16′ half-field). Source: s09_web_v10/map_jointpn.png.
0.3 keV surface-brightness map, XMM PN only, 16 arcmin half-field
XMM PN-only 0.3 keV 图(16′ 半视场)。来源:s09_web_v10/map_xmmpn.png。XMM PN-only 0.3 keV map (16′ half-field). Source: s09_web_v10/map_xmmpn.png.

来源Source: artifacts/s09_web_v10/map_jointpn.png, map_xmmpn.png; E083 handover (L6, E076)

3.4 壁的延伸:测到 ~55 kpc,55–66 kpc 为候选(L7)Wall extent: measured to ~55 kpc, 55–66 kpc a candidate (L7)

MEASURED (39–55 kpc) CANDIDATE (55–66 kpc) 用分区剖面(壁楔 θ 15–45° 减去同半径外侧 θ > 52.5°)测壁超出 B。联合 PN+FXT(星系团掩罩后):39–55 kpc B = 2.48 ± 0.43 PW;把 E084 的 0.3–0.5 PW 估计器系统学加进误差后为 4.8–3.8σ。55–66 kpc B = 2.09 ± 0.67 PW:加入估计器系统学为 2.9–2.5σ(RT-01),再加 RT-06 的 0.47–0.59 PW 掩罩系统学为 2.0–2.4σ(保守),随所含系统学不同在 2.0–2.9σ —— 候选,非探测。66 kpc 以外无探测(12–16′ 为 −0.26 ± 0.61),95% 上限 B < 0.75 PW(仅统计)。FXT 单独 3.3σ、XMM PN 单独 1.6σ,符号一致(联合值在 55–66 kpc 约 75% 由 FXT 加权,与 FXT 单独不独立);MOS 单独为负(−0.64 ± 1.13、−2.07 ± 1.92)——正是 MOS 梯度曾把 v9 XMM 壁压低的原因。同统计量旋转零假设(29 条非相邻轴):观测 B 超过全部对照,p ≤ 0.033。FXT 60′ 壁发射率可追到 70–80 kpc(WSW,误差大)。

MEASURED (39–55 kpc) CANDIDATE (55–66 kpc) The wall excess B is measured from zone profiles (wall wedge θ 15–45° minus the same-radius outside θ > 52.5°). Joint PN+FXT (cluster masked): B = 2.48 ± 0.43 PW at 39–55 kpc; 4.8–3.8σ once the E084 0.3–0.5 PW estimator systematic is added in quadrature. At 55–66 kpc B = 2.09 ± 0.67 PW: 2.9–2.5σ with the estimator systematic (RT-01), and 2.0–2.4σ (conservative) once the RT-06 0.47–0.59 PW mask systematic is added — 2.0–2.9σ depending on the systematics included, a candidate, not a detection. Beyond 66 kpc there is no detection (12–16′: −0.26 ± 0.61), with a 95% limit B < 0.75 PW (stat only). FXT alone gives 3.3σ and XMM PN alone 1.6σ, same sign (the joint value at 55–66 kpc is ~75% FXT-weighted, so it is not independent of FXT alone); MOS alone is negative (−0.64 ± 1.13, −2.07 ± 1.92) — the MOS gradient is what had pulled the v9 XMM walls down. A same-statistic rotated null over 29 non-adjacent axes: the observed B exceeds all controls, p ≤ 0.033. The FXT 60′ wall emissivity is traceable to 70–80 kpc (WSW, large errors).

红队 R1/RT-01/RT-06 措辞(已采纳):55–66 kpc 是一个合并径向 bin 的显著性,不是一个带误差的端点;外延的"终点"需要 C3 的端到端注入-回收与系统学标定。本手册写"壁测到 ~55 kpc;55–66 kpc 合并 bin 内候选(2.0–2.9σ)",不写"壁终于 66 kpc ± …"。掩罩放大到 60–70″ 只在 5–21 楔形源周围时 B 降到 1.2–1.5 PW(一条可能的 PSF 翼路径,未证实,RT-06 待定项)。

Red-team R1/RT-01/RT-06 wording (adopted): the 55–66 kpc value is the significance of a pooled radial bin, not an endpoint with an error bar; the outer reach needs the C3 end-to-end injection-recovery and systematics calibration. This handbook says "walls measured to ~55 kpc; a candidate in the pooled 55–66 kpc bin (2.0–2.9σ)", not "the walls end at 66 kpc ± …". Enlarging the masks to 60–70″ only around the 5–21 wedge sources lowers B to 1.2–1.5 PW (a possible PSF-wing route, not demonstrated; an RT-06 undecided item).

Wall excess B per 1 arcmin ring for joint PN plus FXT, FXT, XMM PN and XMM MOS only
壁超出 B 逐 1′ 环(S09 E086,星系团掩罩)。蓝:联合 PN+FXT;橙:FXT;绿:XMM PN;灰:MOS-only(负值即 MOS 梯度效应)。数据:redo_l7_l8.json。Wall excess B per 1′ ring (S09 E086, cluster masked). Blue: joint PN+FXT; orange: FXT; green: XMM PN; grey: MOS-only (negative values = the MOS gradient effect). Data: redo_l7_l8.json.
S09 E086 figure: wall excess per camera set, azimuthal profile at 55-66 kpc, and cap rim limits
S09 E086。上:各相机组的壁超出;55–66 kpc 的方位角剖面(超出集中在 θ 10–30°)。下:帽缘上限。S09 E086. Top: wall excess per camera set; the azimuthal profile at 55–66 kpc (the excess sits at θ 10–30°). Bottom: cap-rim limits.

来源Source: cognition-os/experiments/E086_s09_l7_l8_pn_only.md; artifacts/s09_e086_l7_l8_pn/redo_l7_l8.json; R1 redteam REPORT.sol.md (rank 1)

3.5 45–90 kpc 无帽(L8)No cap at 45–90 kpc (L8)

MEASURED 用切圆模板与自由半径扫描(远点 ≥ 45 kpc,34 个旋转空假设,全局 p)搜"帽"。30° 帽扇区(避开壁)内无任何模板显著(p ≥ 0.24,两侧与折叠均如此)。60° 扇区内唯一显著的边(PN 联合,p < 0.03,远点 69 kpc)位于壁楔角内 —— 是壁的顶端,不是帽。95% 帽缘上限(联合 PN+FXT 折叠,60° 扇区):50–70 kpc K95 ≈ 1.4 PW,70–90 kpc ≈ 2.1 PW(PW,0.3 keV 等离子体口径);FXT 60′ 折叠到 110 kpc 为 0.9–2.0 PW。0.7–2 keV 硬带(FXT 60′)无热帽探测;在测得的晕密度下,软强击波帽会在软带上限边缘(边缘排除),热(1 keV)帽允许(E093)。红队 R1 措辞(已采纳):这些是模板依赖的上限,"无帽"应写作"在所述模板与灵敏度内无需帽",不排除闭式/热泡。

MEASURED A cap search uses tangent-circle templates and a free-radius scan (far point ≥ 45 kpc, 34 rotated nulls, global p). No template is significant in the 30° cap sector (clear of the walls; p ≥ 0.24 on both sides and in the fold). The only significant edge in the 60° sector (PN joint, p < 0.03, far point 69 kpc) lies inside the wall wedge — it is the top of the walls, not a cap. 95% cap-rim limits (joint PN+FXT fold, 60° sector): K95 ≈ 1.4 PW at 50–70 kpc and ≈ 2.1 PW at 70–90 kpc (PW, the 0.3 keV plasma-unit convention); the FXT 60′ fold gives 0.9–2.0 PW to 110 kpc. No hot cap is detected at 0.7–2 keV (FXT 60′); at the measured halo density a soft strong-shock cap would sit at the soft fold limit (marginally excluded) and a hot (1 keV) cap is allowed (E093). Red-team R1 wording (adopted): these are template-dependent limits; "no cap" should read "no cap required within the stated templates and sensitivities", which does not exclude a closed or hot bubble.

E087 cap search: tangent circles on the map with the null scans and rim limits
E087。切圆帽搜索:地图上的切圆、旋转空假设与缘上限。E087. The tangent-circle cap search: circles on the map, rotated nulls, and rim limits.

来源Source: cognition-os/experiments/E086_s09_l7_l8_pn_only.md (L8 tables); XMMLineMap E087, E093; n3079_e087_cap_circles.png

3.6 三维几何(3-D geometry):WSW 锥→近等宽结构;ENE 张开(L9)3-D geometry: WSW cone → near-constant width; ENE flares (L9)

MEASURED (edge shape) INFERRED (3-D hollow chimney)(mock 标定;轴对称模型族内)对每 0.5′ 横向 bin、1′ 高度 bin(14–80 kpc)用精确 Abel 投影拟合轴对称壳+内部模型。WSW:半张角 44–46° 的厚壁锥(壁厚分数 f 0.45–0.6)在 ~40 kpc 处变为近等宽结构;锥形在 Δχ² +10.4(FXT 60′)/ +8.2(联合 PN)上更差,填充双锥被拒绝(Δχ² +14.8 / +18.6)。转折高度较宽:联合 dχ² ≤ 1 区间为 26–43 kpc(最佳 38.7–41.5 kpc)。"空心"是 ~2σ 上限(η = 1 代价 Δχ² 3.2–3.9;无显著边缘增亮)。ENE:~45° 锥,~40 kpc 以上缓慢张开;其填充不受约束(mock P 0.07–0.13)。Kompaneets 剧烈失宠(WSW Δχ² +28.6:底部太宽)。PN+FXT 联合图复核(S09 E087):WSW 46° 锥 → 36 kpc 近烟囱,与 FXT 60′ 同形;ENE 不变。红队 RT-03(已采纳):39 kpc 以上一个非轴对称的"双片"(two-sheet)模型拟合得同样好(Δχ² −0.96 FXT / +0.53 联合),6–8° 倾角与 HPD 尺度 PSF 不能解释边缘形状;因此"边缘形状锥→近等宽"是 MEASURED,"3-D 空心烟囱"是 INFERRED(轴对称 imposed)。

MEASURED (edge shape) INFERRED (3-D hollow chimney) (mock-calibrated; within axisymmetric families) Transverse profiles (0.5′ bins, 1′ height bins, 14–80 kpc) are fitted with axisymmetric shell + interior models projected by an exact Abel integral. WSW: a thick-walled cone of half-opening 44–46° (fractional thickness f 0.45–0.6) turns into a near-constant-width structure at ~40 kpc; the cone is worse by Δχ² +10.4 (FXT 60′) / +8.2 (joint PN), and a filled bicone is rejected (Δχ² +14.8 / +18.6). The break height is broad: the joint dχ² ≤ 1 interval is 26–43 kpc (best 38.7–41.5 kpc). "Hollow" is a ~2σ limit (η = 1 costs Δχ² 3.2–3.9; no significant limb). ENE: a ~45° cone flaring slowly above ~40 kpc; its fill is not constrained (mock P 0.07–0.13). Kompaneets blow-out is strongly disfavoured (WSW Δχ² +28.6: its base is too wide). The PN+FXT joint map recheck (S09 E087) gives the same WSW form (46° cone → near-chimney at 36 kpc), in the same shape as FXT 60′; ENE is unchanged. Red-team RT-03 (adopted): above 39 kpc a non-axisymmetric two-sheet model fits as well (Δχ² −0.96 FXT / +0.53 joint), and a 6–8° inclination and HPD-scale PSF do not explain the edge shape; so "edge shape cone → near-constant width" is MEASURED, while the "3-D hollow chimney" is INFERRED (axisymmetry imposed).

E094: candidate shapes with delta chi-squared, best 3-d model on the FXT map, eta scan, transverse profiles
E094。候选形状的 Δχ²、最佳 3-D 模型叠图、η 扫描与逐高度横向剖面。E094. Δχ² of the candidate shapes, the best 3-D model on the map, the η scan, and transverse profiles per height.
S09 E087: geometry and over-pressure redone on the PN plus FXT joint map
S09 E087。PN+FXT 联合图上的几何、壁剖面与压力复核:WSW 烟囱与超压都成立。S09 E087. Geometry, wall profile and pressure redone on the PN+FXT joint map: the WSW chimney and the over-pressure both hold.

来源Source: XMMLineMap E094_n3079_wind_3d_geometry.md; E097; S09 E087_s09_joint_products_pn.md; R1 redteam (rank 7)

3.7 温度 kT(z)(L10)与 C2 复核Temperatures kT(z) (L10) and the C2 recheck

MEASURED 1T on-off APEC 谱拟合(Z 固定 0.3):8–28 kpc kT 0.25–0.31 keV;41–61 kpc 壁 0.19–0.22 keV;每个高度上壁与内部共享一个 kT(E095,dC ≤ 2)。C2 复核(2026-10-15,去 MOS2):归档门(WWALL:BG,MOS2+PN+FXT)精确复现 kT = 0.187298 keV;PN+FXT 重拟后 WSW 壁 41–61 kpc 0.187 → 0.182 keV、ENE 0.218 → 0.237 keV;所有相机对移动 ≤ 0.036 keV(≤ 1.3 倍归档半宽);PN-only 更噪(最大移动 +2.53 半宽)。结论 L10 不变。

MEASURED 1T on-off APEC spectral fits (Z fixed at 0.3): kT 0.25–0.31 keV at 8–28 kpc; walls 0.19–0.22 keV at 41–61 kpc; wall and interior share one kT at each height (E095, dC ≤ 2). C2 recheck (2026-10-15, MOS2 removed): the archived gate (WWALL:BG, MOS2+PN+FXT) reproduces kT = 0.187298 keV exactly; with PN+FXT the WSW wall at 41–61 kpc moves 0.187 → 0.182 keV and the ENE wall 0.218 → 0.237 keV; every camera pair moves by ≤ 0.036 keV (≤ 1.3 archived half-widths); PN-only is noisier (largest move +2.53 half-widths). L10 stands.

kT and O/Fe: archived MOS2 plus PN plus FXT versus C2 PN plus FXT refits
左:1T kT,归档(MOS2+PN+FXT,灰)对 C2 PN+FXT(蓝)。右:1T O/Fe,归档(灰)对 C2(绿);虚线为太阳比。数值来自 C2 报告 Table 1/2 与其 npy 文件。Left: 1T kT, archived (MOS2+PN+FXT, grey) against C2 PN+FXT (blue). Right: 1T O/Fe, archived (grey) against C2 (green); the dashed line is the solar ratio. Values from C2 report Tables 1/2 and their npy files.
相机对(regspec)Pair (regspec)归档 kT (keV)Archived kT (keV)C2 PN+FXTD (keV)
WWALL:BG (e092)0.187 (0.150–0.226)0.182 (0.146–0.215)−0.005
EWALL:BG (e092)0.218 (0.192–0.246)0.237 (0.211–0.268)+0.019
WWLL:BG (e095)0.247 (0.231–0.265)0.248 (0.230–0.270)+0.001
EWLL:BG (e095)0.239 (0.217–0.265)0.252 (0.220–0.288)+0.013

来源Source: .agent/jobs/2026-10-15-c2-outer-spectra-pn-fxt/REPORT.hermes.md Table 1; out_hermes/kT/*.npy; XMMLineMap E092, E095

3.8 O/Fe:归档对 C2,与 Liu et al. 2026 比较(L11)O/Fe: archived against C2, and the Liu et al. 2026 comparison (L11)

MEASURED(相对值)CONDITIONAL(绝对值)1T 轮廓似然 O/Fe(a_O/a_Fe,Asplund 2009 太阳标度):C2 PN+FXT 使最佳值下降 10–45% —— 壁 17–28 kpc 8.26 → 6.81(dC(O/Fe=1) +8.9 → +5.4)、内部 17–28 kpc 7.47 → 5.88(+11.7 → +6.6)、壁 41–61 kpc 11.2 → 6.6;pooled 壁 28–61 kpc 4.87 → 6.33(上升)。所有区间与归档重叠;上界仍触格点边 20。太阳(O/Fe = 1)仍被排除的:pooled 17–28 kpc 壁与内部、pooled 41–61 kpc 内部(dC +5.4/+6.6/+12.4);单区 17–28 kpc 与 28–61 kpc 壁不再排除太阳。合并似然注意:pooled 拟合对每个 ON 区重复计一次 BG 谱(e079_fit.py:220,R1 astra 发现、Claude 确认),profile-dC 区间未校准;单区拟合不受影响。与 Liu et al. 2026(arXiv:2609.37646)比较:其 RGS 核心区 O/Fe = 0.47(mCIE+CX,Lodders 2009 标度,与 Asplund 2009 数字比相同,×1.00),EPIC-MOS 1T 为 3.5(1–2′)、5.1(2–3′)、4.1(NE+SW 扇区)—— 绝对 1T 值偏高的直接证据;两者标度换算(Lodders→Asplund)尚未做(C6)。

MEASURED (relative) CONDITIONAL (absolute) 1T profile-likelihood O/Fe (a_O/a_Fe, Asplund 2009 solar scale): C2 PN+FXT lowers the best values by 10–45% — walls 17–28 kpc 8.26 → 6.81 (dC(O/Fe=1) +8.9 → +5.4), interior 17–28 kpc 7.47 → 5.88 (+11.7 → +6.6), walls 41–61 kpc 11.2 → 6.6; pooled walls 28–61 kpc rise 4.87 → 6.33. Every interval overlaps the archive; upper bounds still hit the grid edge at 20. Solar (O/Fe = 1) remains rejected for the pooled 17–28 kpc walls and interior and the pooled 41–61 kpc interior (dC +5.4/+6.6/+12.4); the single 17–28 kpc regions and the 28–61 kpc walls no longer reject solar. Pooled-likelihood caveat: pooled fits count the BG spectrum once per ON region (e079_fit.py:220, found by R1 astra, confirmed by Claude), so their profile-dC intervals are uncalibrated; single-region fits are unaffected. Comparison with Liu et al. 2026 (arXiv:2609.37646): their RGS nucleus O/Fe = 0.47 (mCIE+CX, Lodders 2009 scale, numerically identical ratio to Asplund 2009, ×1.00), EPIC-MOS 1T 3.5 (1–2′), 5.1 (2–3′), 4.1 (NE+SW sectors) — direct evidence that absolute 1T values are biased high; the Lodders→Asplund conversion is not yet done (C6).

谱区(高度)Spec (height)归档 O/FeArchived O/FeC2(PN+FXT)C2 (PN+FXT)dC(1) 归档→C2archived→C2
EWLL+WWLL:BG (walls 17–28)8.26 (4.09–20.0)6.81 (3.20–20.0 EDGE)+8.9 → +5.4
EAXL+WAXL:BG (interior 17–28)7.47 (4.18–17.87)5.88 (3.19–12.95)+11.7 → +6.6
EWLM+WWLM:BG (walls 28–39)3.07 (1.23–10.79)3.96 (1.29–15.76)+1.5 → +1.5
EWALL+WWALL:BG (walls 41–61)11.23 (1.60–20.0)6.55 (1.05–20.0 EDGE)+1.5 → +1.0
EWLM+WWLM+EWALL+WWALL:BG (walls 28–61 pooled)4.87 (2.03–20.0)6.33 (2.34–20.0 EDGE)+3.4 → +3.6
E096: O/Fe regions on the FXT map and profile likelihoods by height and side
E096(归档 MOS2+PN+FXT 版本)。左:FXT 60′ 图上的 O/Fe 谱区;右:按高度与侧的 O/Fe 轮廓似然(所有曲线共享一个值,dC ≤ 0.5)。E096 (archived MOS2+PN+FXT version). Left: the O/Fe regions on the FXT 60′ map; right: O/Fe profile likelihoods by height and side (all curves share one value, dC ≤ 0.5).

来源Source: REPORT.hermes.md Table 2; out_hermes/ofe/*.npy; XMMLineMap E096 §d; P1 REPORT.sonnet.md (Lodders/Asplund ×1.00)

3.9 晕剖面与 47 kpc 密度(L12)—— 上限,非探测The halo profile and the density at 47 kpc (L12) — an upper limit, not a detection

LIMIT(2026-10-15 RT-05 分诊;原 MEASURED,模型依赖)沿主轴(PA 165/345 ±30° 扇区,1′ 环)的面亮度梯度给出中心热晕:晕未被探测到 —— FXT 60′ 振幅仅 1.63σ,PN 单独为 −0.33σ。引用上限:47 kpc 处 n_H < 0.9–1.4e-4 cm⁻³(2σ,随 FXT 径向标定与发射率转换而变);最佳值 5.8–6.7e-5 不是探测。原 2σ 上限 8.6e-5 在 FXT 公共模径向残差(仍被 PN/FXT 斜率 −0.15 ± 0.24 PW/arcmin、最大 +0.34 在 2σ 内允许)下升至 1.43e-4 —— 恰为平衡密度。发射率转换:0.2 keV(非 0.3 keV)使 n_H ×1.16–1.17(最佳 6.7e-5、上限 1.0e-4、0.2 keV 处 P 4.9e-14);Z 0.1–1 使 n_H ×1.73–0.68(C5 已知告警,现已量化)。β 0.2 / r_c 64′(350 kpc)给 1.43e-4 但不可信(次要;r_c ≤ 8′、β ≥ 0.35 时 8.9e-5)。PN-only XMM 独立给出 2σ ≤ 5.1–12.1e-5。能把壁压平衡掉的晕(nH ≈ 1.4e-4)预测 S(8′)−S(22′) = 4.1–5.3 PW,而 FXT 60′ 实测 −0.1 ± 1.4 PW —— 在两侧情形中被排除,但公共模残差路径(RT-08,在跑)仍待测。

LIMIT (2026-10-15 RT-05 triage; was MEASURED, model-dependent) The major-axis brightness gradient (sectors within ±30° of PA 165/345, 1′ rings) gives the centred hot halo: the halo is not detected — the FXT 60′ amplitude is only 1.63σ and PN alone is −0.33σ. Quote the limit: at 47 kpc n_H < 0.9–1.4e-4 cm⁻³ (2σ, depending on the FXT radial calibration and the emissivity conversion); the best value 5.8–6.7e-5 is not a detection. The former 2σ upper 8.6e-5 rises to 1.43e-4 — the balance density — under an FXT common-mode radial residual still allowed at 2σ by the PN/FXT slope (−0.15 ± 0.24 PW/arcmin, max +0.34). Emissivity conversion: 0.2 keV (not 0.3 keV) multiplies n_H by 1.16–1.17 (best 6.7e-5, upper 1.0e-4, P 4.9e-14 at 0.2 keV); Z 0.1–1 multiplies n_H by 1.73–0.68 (a known C5 caveat, now quantified). β 0.2 / r_c 64′ (350 kpc) gives 1.43e-4 but is implausible (minor; r_c ≤ 8′, β ≥ 0.35 gives 8.9e-5). PN-only XMM independently gives 2σ ≤ 5.1–12.1e-5. A halo dense enough to balance the walls (nH ≈ 1.4e-4) predicts S(8′)−S(22′) = 4.1–5.3 PW against the measured FXT 60′ value of −0.1 ± 1.4 PW — excluded in the two-sided cases, but the common-mode residual route (RT-08, running) is still untested.

S09 E084: halo density limit over the background, foreground and beta-model grid, for FXT 60 and PN-only XMM
S09 E084。47 kpc 晕密度上限随 rc、β、内拟半径与误差集的变化;FXT 60′ 与 PN-only XMM。S09 E084. The 47 kpc halo density limit against rc, β, inner fit radius and error set; FXT 60′ and PN-only XMM.

来源Source: I021 L12 (RT-05 triage 2026-10-15); REDTEAM_QUEUE.md RT-05; cognition-os/experiments/E084_s09_halo_limit_robustness.md; XMMLineMap E091; P2 REPORT.sol.md

3.10 壁超压 P_wall/P_halo(L13)与 C2 重标定 —— 条件于 FXT 径向标定Wall over-pressure P_wall/P_halo (L13) and the C2 rescaling — conditional on the FXT radial calibration

CONDITIONAL(2026-10-15 RT-05 后果;原 MEASURED 由 L12)壁压力 P_wall = 2.3 nH_wall kT(nH_wall 由发射率、固定波段转换;kT 由 §3.7 表)。在壁的三维半径(3-d radius)r = √(z² + w_c²) 处对局部晕比较:在最佳拟合晕处 WSW P_wall/P_halo = 2.95 ± 0.84(1σ;含 28% 晕水平误差 E091,kT_halo 取 0.2 keV;q ∝ 0.2 keV/kT_halo)—— ± 0.16 只是壁归一化误差。ENE 依图与壁厚模型族为 2.6–3.6。"随高度持平"依赖 e098a 的 z > 14 kpc 截断:纳入 13.8 kpc bin 后 q = 3.49、斜率 −0.30 ± 0.07。RT-05 后果(Claude 算术,未重跑):q ∝ 1/P_halo;用一致的 0.2 keV 发射率(n_H ×1.16)时 q 2.95 → ~2.55;若 FXT 公共模 2σ 上限(1.43e-4)替换 8.6e-5,最不利叠加从 1.41 降到 ~0.85 —— 在所有 2σ 系统学下超压并无保证。条件:"在最佳拟合晕处超压";状态 CONDITIONAL 于 FXT 径向标定。联合 PN 图独立分支:WSW 2.7(< 38 kpc)/ 2.3(> 38 kpc),与 FXT 60′ 一致。C2 重标定(固定密度):kT_new/kT_old = 0.97(WSW 41–61 kpc)与 1.09(ENE),故 WSW 2.95 → 2.87、ENE 2.6 → 2.83。38–40 kpc 处无压力跳变。P2 静力学范围:16 个 HSE 晕模型给出 WSW 平均 q = 2.16–3.78(永不接近 1),但斜率 −0.45 到 +0.60 —— "随高度持平"在模型族间脆弱。

CONDITIONAL (2026-10-15 RT-05 consequence; was MEASURED from L12) The wall pressure is P_wall = 2.3 nH_wall kT (nH_wall from the emissivity at a fixed band conversion; kT from the §3.7 table). Compared against the local halo at the wall's 3-d radius r = √(z² + w_c²): at the best-fit halo WSW P_wall/P_halo = 2.95 ± 0.84 (1σ; including the 28% halo-level error from E091, with kT_halo at 0.2 keV; q ∝ 0.2 keV/kT_halo) — ±0.16 is the wall-normalisation error only. ENE is 2.6–3.6 depending on the map and wall-thickness family. "Flat with height" depends on the e098a z > 14 kpc cut: including the 13.8 kpc bin gives q = 3.49 and slope −0.30 ± 0.07. RT-05 consequence (Claude arithmetic, not re-run): q scales as 1/P_halo; with a consistent 0.2 keV emissivity (n_H ×1.16) q goes 2.95 → ~2.55; if the FXT common-mode 2σ upper (1.43e-4) replaces 8.6e-5, the hostile stack drops from 1.41 to ~0.85 — over-pressure is not guaranteed under all 2σ systematics. Conditional wording: "over-pressured at the best-fit halo"; status CONDITIONAL on the FXT radial calibration. The independent joint-PN branch gives WSW 2.7 (below 38 kpc) / 2.3 (above 38 kpc), consistent with FXT 60′. C2 rescaling (fixed density): kT_new/kT_old = 0.97 (WSW 41–61 kpc) and 1.09 (ENE), so WSW 2.95 → 2.87 and ENE 2.6 → 2.83. No pressure jump at 38–40 kpc. P2 hydrostatic range: 16 HSE halo models give a WSW mean q = 2.16–3.78 (never near 1), but slopes from −0.45 to +0.60 — "flat with height" is fragile across model families.

WSW wall density and pressure against height, FXT 60 prime, filling factor 1
WSW 壁密度 nH(z)(左,对数)与壁压力 P_wall(z)(右),FXT 60′、f = 1、归档 kT。虚线:P_halo(r = z) 的最佳拟合水平 —— 这是上限而非探测(RT-05:晕振幅 1.63σ);点线:2σ 上限(无 FXT 径向残差,×1.56 = 8.6e-5/5.5e-5);灰色带:计入 FXT 公共模径向残差与 0.2 keV 发射率后的 2σ 上限(至 ×3.0 = 1.43e-4 × 1.16 / 5.5e-5)。图中晕取 r = z(高度);正文标题比值(q = 2.95 ± 0.84,条件于 FXT 径向标定)用的是更大的三维半径(3-d radius)r = √(z² + w_c²),该处 P_halo 更低、q 更大。数据:e096_wall_profile.json(PN 联合档案)。WSW wall density nH(z) (left, log scale) and wall pressure P_wall(z) (right), FXT 60′, f = 1, archived kT. Dashed: the best-fit P_halo(r = z) level — this is a limit, not a detection (RT-05: halo amplitude 1.63σ); dotted: the 2σ upper limit without an FXT radial residual (×1.56 = 8.6e-5/5.5e-5); grey band: the 2σ upper limit with the FXT common-mode radial residual and the 0.2 keV emissivity (up to ×3.0 = 1.43e-4 × 1.16 / 5.5e-5). The plotted halo is taken at r = z (height); the headline ratio (q = 2.95 ± 0.84, conditional on the FXT radial calibration) uses the larger 3-d radius r = √(z² + w_c²), where P_halo is lower and q is higher. Data: e096_wall_profile.json (PN joint archive).

来源Source: XMMLineMap E096 §a, E098a; REPORT.hermes.md Table 3; P2 REPORT.sol.md (HSE grid); artifacts/s09_e087_joint_pn/PN/e096_wall_profile.json

3.11 质量与能量收支(L14、L17;L16 条件性)Mass and energy budgets (L14, L17; L16 conditional)

INFERRED(填充因子 f = 1;2026-10-15 RT-07 分诊后措辞)可见的现今风(HK2020 的 X 射线可见高纬成分:到 ~21.5 kpc 的箱,Ṁ < 0.19 M⊙/yr、L_kin < 1.35e40 erg/s、v 475–570 km/s;不是总风 —— 隐藏的快脊柱未被约束)在流动时间内供给 WSW 壁热能的 1/7–1/14(稳健能量亏缺 ×6.9–14;FXT ENE 38–80 kpc 的 ×34 用了窗口受限的几何,E096)。壁质量可以是被扫积的晕气体(壁/扫积比 1.8–2.2;体积填充 f_v 0.22–0.29 时相等),故质量亏缺条件于"喷出物"假设。WSW 壁 14–38 kpc 质量 2.5–3.7e8 M⊙、热能 3–4e56 erg;38–80 kpc 质量 5.2–6.4e8 M⊙、E_th 5e56 erg;ENE 相近。星暴机械功率(~8e41 erg/s)可在 30–40 Myr 内供上能量。INFERRED L17:L_X(0.5–2 keV, 14–80 kpc) ≈ 2e39 erg/s ≈ SN 功率的 0.25%(快照比值)。CONDITIONAL L16:光滑壁(热支撑)把 47 kpc 总晕压限制在 ≲ 3 P_X;类似 NGC 4594 的隐藏热相(f_X = 5e-3)需要 f_w ≤ 0.04。标度:质量与能量 ∝ √(f_v) √(L0/L) √(Λ0/Λ)(能量还 × kT);全部能量 ∝ P_halo(47 kpc)/4.1e-14。

INFERRED (filling factor f = 1; wording after the 2026-10-15 RT-07 triage) The visible present wind (HK2020's X-ray-visible high-latitude component: boxes to ~21.5 kpc, Ṁ < 0.19 M⊙/yr, L_kin < 1.35e40 erg/s, v 475–570 km/s; not the total wind — a hidden fast spine is not bounded) supplies 1/7–1/14 of the WSW wall thermal energy over the flow time (robust energy deficit ×6.9–14; the ×34 for the FXT ENE 38–80 kpc uses window-limited geometry, E096). The wall mass can be swept-up halo gas (wall/swept 1.8–2.2; equal at volume filling f_v 0.22–0.29), so the mass deficit is conditional on ejecta. WSW walls 14–38 kpc: mass 2.5–3.7e8 M⊙, thermal energy 3–4e56 erg; 38–80 kpc: 5.2–6.4e8 M⊙, E_th 5e56 erg; ENE similar. The starburst mechanical power (~8e41 erg/s) would supply the energy in 30–40 Myr. INFERRED L17: L_X(0.5–2 keV, 14–80 kpc) ≈ 2e39 erg/s ≈ 0.25% of the SN power (a snapshot ratio). CONDITIONAL L16: smooth, thermally supported walls limit the total halo pressure at 47 kpc to ≲ 3 P_X; an NGC 4594-like hidden hot phase (f_X = 5e-3) needs f_w ≤ 0.04. Scalings: mass and energy ∝ √(f_v) √(L0/L) √(Λ0/Λ) (energy also × kT); all energies ∝ P_halo(47 kpc)/4.1e-14.

WSW 壁WSW walls14–38 kpc38–80 kpc
质量(f = 1)Mass (f = 1)2.5–3.7e8 M⊙5.2–6.4e8 M⊙
E_th3–4e56 erg5e56 erg
可见现今风供给质量需时Time for the visible present wind to supply the mass1.4–2.0 Gyr2.8–3.4 Gyr
……供给能量需时(能量亏缺 ×6.9–14)…to supply the energy (deficit ×6.9–14)0.7–1.0 Gyr1.1–1.3 Gyr
500 km/s 流动时间Flow time at 500 km/s74 Myr156 Myr

来源Source: I021 L14/L17 (RT-07 triage 2026-10-15); REDTEAM_QUEUE.md RT-07; XMMLineMap E096 §b; E098a; S09 FACTS (budgets); HK2020 = Hodges-Kluck et al. 2020, ApJ 903, 35

3.12 候选与非探测(L18–L21),伴星系效应与撤回清单Candidates and non-detections (L18–L21), companion effects, and the withdrawn list

来源Source: I021 (L18–L21, withdrawn list); XMMLineMap E098c–e, E098d; E086 (L21); P5 REPORT.sonnet.md