[
  {
    "slide_id": "021",
    "pdf_page": 50,
    "printed_page": 51,
    "module_id": "00-conventions",
    "title": "章節脈絡與共同模型",
    "summary_zh": "章節首頁，無獨立公式；閱讀共同模型與符號。",
    "html": "../derivations/ch02/00-conventions.html",
    "markdown": "../derivations/ch02/00-conventions.md",
    "status": "context_reviewed_no_independent_derivation",
    "discrepancy_ids": [],
    "sfg": "not_applicable",
    "sfg_reason": "本頁為章節脈絡，無獨立小訊號模型需建圖。"
  },
  {
    "slide_id": "022",
    "pdf_page": 50,
    "printed_page": 51,
    "module_id": "00-conventions",
    "title": "章節脈絡與共同模型",
    "summary_zh": "本章單管、跟隨器與 cascode 的架構導覽；各拓撲映射至後續推導。",
    "html": "../derivations/ch02/00-conventions.html",
    "markdown": "../derivations/ch02/00-conventions.md",
    "status": "context_reviewed_no_independent_derivation",
    "discrepancy_ids": [],
    "sfg": "not_applicable",
    "sfg_reason": "本頁為章節脈絡，無獨立小訊號模型需建圖。"
  },
  {
    "slide_id": "023",
    "pdf_page": 51,
    "printed_page": 52,
    "module_id": "00-conventions",
    "title": "章節脈絡與共同模型",
    "summary_zh": "目錄與基本電路分類；導入單管放大器，無獨立待推導公式。",
    "html": "../derivations/ch02/00-conventions.html",
    "markdown": "../derivations/ch02/00-conventions.md",
    "status": "context_reviewed_no_independent_derivation",
    "discrepancy_ids": [],
    "sfg": "not_applicable",
    "sfg_reason": "本頁為章節脈絡，無獨立小訊號模型需建圖。"
  },
  {
    "slide_id": "024",
    "pdf_page": 51,
    "printed_page": 52,
    "module_id": "01-intrinsic-gain",
    "title": "單管增益與 MOS／BJT 比較",
    "summary_zh": "由 drain KCL 與器件電流微分得到增益，再比較固定過驅動下的 MOS／BJT。",
    "html": "../derivations/ch02/01-intrinsic-gain.html",
    "markdown": "../derivations/ch02/01-intrinsic-gain.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "025",
    "pdf_page": 52,
    "printed_page": 53,
    "module_id": "01-intrinsic-gain",
    "title": "單管增益與 MOS／BJT 比較",
    "summary_zh": "由 drain KCL 與器件電流微分得到增益，再比較固定過驅動下的 MOS／BJT。",
    "html": "../derivations/ch02/01-intrinsic-gain.html",
    "markdown": "../derivations/ch02/01-intrinsic-gain.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "026",
    "pdf_page": 52,
    "printed_page": 53,
    "module_id": "01-intrinsic-gain",
    "title": "單管增益與 MOS／BJT 比較",
    "summary_zh": "由 drain KCL 與器件電流微分得到增益，再比較固定過驅動下的 MOS／BJT。",
    "html": "../derivations/ch02/01-intrinsic-gain.html",
    "markdown": "../derivations/ch02/01-intrinsic-gain.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "027",
    "pdf_page": 53,
    "printed_page": 54,
    "module_id": "02-single-pole",
    "title": "單極點、GBW 與尺寸數值題",
    "summary_zh": "推導負載電容主極點、交越頻率、GBW 與 029 的尺寸例題。",
    "html": "../derivations/ch02/02-single-pole.html",
    "markdown": "../derivations/ch02/02-single-pole.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "028",
    "pdf_page": 53,
    "printed_page": 54,
    "module_id": "02-single-pole",
    "title": "單極點、GBW 與尺寸數值題",
    "summary_zh": "推導負載電容主極點、交越頻率、GBW 與 029 的尺寸例題。",
    "html": "../derivations/ch02/02-single-pole.html",
    "markdown": "../derivations/ch02/02-single-pole.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "029",
    "pdf_page": 54,
    "printed_page": 55,
    "module_id": "02-single-pole",
    "title": "單極點、GBW 與尺寸數值題",
    "summary_zh": "推導負載電容主極點、交越頻率、GBW 與 029 的尺寸例題。",
    "html": "../derivations/ch02/02-single-pole.html",
    "markdown": "../derivations/ch02/02-single-pole.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0210",
    "pdf_page": 54,
    "printed_page": 55,
    "module_id": "02-single-pole",
    "title": "單極點、GBW 與尺寸數值題",
    "summary_zh": "推導負載電容主極點、交越頻率、GBW 與 029 的尺寸例題。",
    "html": "../derivations/ch02/02-single-pole.html",
    "markdown": "../derivations/ch02/02-single-pole.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0211",
    "pdf_page": 55,
    "printed_page": 56,
    "module_id": "03-miller",
    "title": "Miller 回授與 RHP 零點",
    "summary_zh": "保留跨接電容的回授與前饋，得到完整傳輸及單極點近似的成立條件。",
    "html": "../derivations/ch02/03-miller.html",
    "markdown": "../derivations/ch02/03-miller.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "used",
    "sfg_reason": "三個電壓節點，保留跨導與電容前饋兩條平行支路，以及電容回授。"
  },
  {
    "slide_id": "0212",
    "pdf_page": 55,
    "printed_page": 56,
    "module_id": "03-miller",
    "title": "Miller 回授與 RHP 零點",
    "summary_zh": "保留跨接電容的回授與前饋，得到完整傳輸及單極點近似的成立條件。",
    "html": "../derivations/ch02/03-miller.html",
    "markdown": "../derivations/ch02/03-miller.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "used",
    "sfg_reason": "三個電壓節點，保留跨導與電容前饋兩條平行支路，以及電容回授。"
  },
  {
    "slide_id": "0213",
    "pdf_page": 56,
    "printed_page": 57,
    "module_id": "03-miller",
    "title": "Miller 回授與 RHP 零點",
    "summary_zh": "保留跨接電容的回授與前饋，得到完整傳輸及單極點近似的成立條件。",
    "html": "../derivations/ch02/03-miller.html",
    "markdown": "../derivations/ch02/03-miller.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "used",
    "sfg_reason": "三個電壓節點，保留跨導與電容前饋兩條平行支路，以及電容回授。"
  },
  {
    "slide_id": "0214",
    "pdf_page": 56,
    "printed_page": 57,
    "module_id": "04-degeneration",
    "title": "源極退化與可調跨導",
    "summary_zh": "保留有限輸出電阻；區分退化阻抗、訊號源電阻與線性區 MOS 的 gate 響應。",
    "html": "../derivations/ch02/04-degeneration.html",
    "markdown": "../derivations/ch02/04-degeneration.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0215",
    "pdf_page": 57,
    "printed_page": 58,
    "module_id": "04-degeneration",
    "title": "源極退化與可調跨導",
    "summary_zh": "保留有限輸出電阻；區分退化阻抗、訊號源電阻與線性區 MOS 的 gate 響應。",
    "html": "../derivations/ch02/04-degeneration.html",
    "markdown": "../derivations/ch02/04-degeneration.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0216",
    "pdf_page": 57,
    "printed_page": 58,
    "module_id": "04-degeneration",
    "title": "源極退化與可調跨導",
    "summary_zh": "保留有限輸出電阻；區分退化阻抗、訊號源電阻與線性區 MOS 的 gate 響應。",
    "html": "../derivations/ch02/04-degeneration.html",
    "markdown": "../derivations/ch02/04-degeneration.md",
    "status": "derived_with_source_notes",
    "discrepancy_ids": [
      "D01"
    ],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0217",
    "pdf_page": 58,
    "printed_page": 59,
    "module_id": "05-diode-loads",
    "title": "二極體接法與主動負載",
    "summary_zh": "由負載的小訊號導納推導增益、頻寬、body effect 與 DC 平衡限制。",
    "html": "../derivations/ch02/05-diode-loads.html",
    "markdown": "../derivations/ch02/05-diode-loads.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0218",
    "pdf_page": 58,
    "printed_page": 59,
    "module_id": "05-diode-loads",
    "title": "二極體接法與主動負載",
    "summary_zh": "由負載的小訊號導納推導增益、頻寬、body effect 與 DC 平衡限制。",
    "html": "../derivations/ch02/05-diode-loads.html",
    "markdown": "../derivations/ch02/05-diode-loads.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0219",
    "pdf_page": 59,
    "printed_page": 60,
    "module_id": "05-diode-loads",
    "title": "二極體接法與主動負載",
    "summary_zh": "由負載的小訊號導納推導增益、頻寬、body effect 與 DC 平衡限制。",
    "html": "../derivations/ch02/05-diode-loads.html",
    "markdown": "../derivations/ch02/05-diode-loads.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0220",
    "pdf_page": 59,
    "printed_page": 60,
    "module_id": "05-diode-loads",
    "title": "二極體接法與主動負載",
    "summary_zh": "由負載的小訊號導納推導增益、頻寬、body effect 與 DC 平衡限制。",
    "html": "../derivations/ch02/05-diode-loads.html",
    "markdown": "../derivations/ch02/05-diode-loads.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0221",
    "pdf_page": 60,
    "printed_page": 61,
    "module_id": "05-diode-loads",
    "title": "二極體接法與主動負載",
    "summary_zh": "由負載的小訊號導納推導增益、頻寬、body effect 與 DC 平衡限制。",
    "html": "../derivations/ch02/05-diode-loads.html",
    "markdown": "../derivations/ch02/05-diode-loads.md",
    "status": "derived_with_source_notes",
    "discrepancy_ids": [
      "D02"
    ],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0222",
    "pdf_page": 60,
    "printed_page": 61,
    "module_id": "05-diode-loads",
    "title": "二極體接法與主動負載",
    "summary_zh": "由負載的小訊號導納推導增益、頻寬、body effect 與 DC 平衡限制。",
    "html": "../derivations/ch02/05-diode-loads.html",
    "markdown": "../derivations/ch02/05-diode-loads.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0223",
    "pdf_page": 61,
    "printed_page": 62,
    "module_id": "06-inverter-dc",
    "title": "CMOS 反相器：DC 與匹配",
    "summary_zh": "分開 NMOS／PMOS 的電流，求總跨導與有限輸出導納下的增益。",
    "html": "../derivations/ch02/06-inverter-dc.html",
    "markdown": "../derivations/ch02/06-inverter-dc.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0224",
    "pdf_page": 61,
    "printed_page": 62,
    "module_id": "06-inverter-dc",
    "title": "CMOS 反相器：DC 與匹配",
    "summary_zh": "分開 NMOS／PMOS 的電流，求總跨導與有限輸出導納下的增益。",
    "html": "../derivations/ch02/06-inverter-dc.html",
    "markdown": "../derivations/ch02/06-inverter-dc.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0225",
    "pdf_page": 62,
    "printed_page": 63,
    "module_id": "06-inverter-dc",
    "title": "CMOS 反相器：DC 與匹配",
    "summary_zh": "分開 NMOS／PMOS 的電流，求總跨導與有限輸出導納下的增益。",
    "html": "../derivations/ch02/06-inverter-dc.html",
    "markdown": "../derivations/ch02/06-inverter-dc.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0226",
    "pdf_page": 62,
    "printed_page": 63,
    "module_id": "06-inverter-dc",
    "title": "CMOS 反相器：DC 與匹配",
    "summary_zh": "分開 NMOS／PMOS 的電流，求總跨導與有限輸出導納下的增益。",
    "html": "../derivations/ch02/06-inverter-dc.html",
    "markdown": "../derivations/ch02/06-inverter-dc.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0227",
    "pdf_page": 63,
    "printed_page": 64,
    "module_id": "06-inverter-dc",
    "title": "CMOS 反相器：DC 與匹配",
    "summary_zh": "分開 NMOS／PMOS 的電流，求總跨導與有限輸出導納下的增益。",
    "html": "../derivations/ch02/06-inverter-dc.html",
    "markdown": "../derivations/ch02/06-inverter-dc.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0228",
    "pdf_page": 63,
    "printed_page": 64,
    "module_id": "07-inverter-ac",
    "title": "CMOS 反相器：完整頻率響應",
    "summary_zh": "以二節點矩陣保留輸入、輸出與跨接電容，核對單管／總跨導的係數。",
    "html": "../derivations/ch02/07-inverter-ac.html",
    "markdown": "../derivations/ch02/07-inverter-ac.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0229",
    "pdf_page": 64,
    "printed_page": 65,
    "module_id": "07-inverter-ac",
    "title": "CMOS 反相器：完整頻率響應",
    "summary_zh": "以二節點矩陣保留輸入、輸出與跨接電容，核對單管／總跨導的係數。",
    "html": "../derivations/ch02/07-inverter-ac.html",
    "markdown": "../derivations/ch02/07-inverter-ac.md",
    "status": "derived_with_source_notes",
    "discrepancy_ids": [
      "D03"
    ],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0230",
    "pdf_page": 64,
    "printed_page": 65,
    "module_id": "07-inverter-ac",
    "title": "CMOS 反相器：完整頻率響應",
    "summary_zh": "以二節點矩陣保留輸入、輸出與跨接電容，核對單管／總跨導的係數。",
    "html": "../derivations/ch02/07-inverter-ac.html",
    "markdown": "../derivations/ch02/07-inverter-ac.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0231",
    "pdf_page": 65,
    "printed_page": 66,
    "module_id": "07-inverter-ac",
    "title": "CMOS 反相器：完整頻率響應",
    "summary_zh": "以二節點矩陣保留輸入、輸出與跨接電容，核對單管／總跨導的係數。",
    "html": "../derivations/ch02/07-inverter-ac.html",
    "markdown": "../derivations/ch02/07-inverter-ac.md",
    "status": "derived_with_source_notes",
    "discrepancy_ids": [
      "D04"
    ],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0232",
    "pdf_page": 65,
    "printed_page": 66,
    "module_id": "07-inverter-ac",
    "title": "CMOS 反相器：完整頻率響應",
    "summary_zh": "以二節點矩陣保留輸入、輸出與跨接電容，核對單管／總跨導的係數。",
    "html": "../derivations/ch02/07-inverter-ac.html",
    "markdown": "../derivations/ch02/07-inverter-ac.md",
    "status": "derived_with_source_notes",
    "discrepancy_ids": [
      "D05"
    ],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0233",
    "pdf_page": 66,
    "printed_page": 67,
    "module_id": "07-inverter-ac",
    "title": "CMOS 反相器：完整頻率響應",
    "summary_zh": "以二節點矩陣保留輸入、輸出與跨接電容，核對單管／總跨導的係數。",
    "html": "../derivations/ch02/07-inverter-ac.html",
    "markdown": "../derivations/ch02/07-inverter-ac.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0234",
    "pdf_page": 66,
    "printed_page": 67,
    "module_id": "06-inverter-dc",
    "title": "CMOS 反相器：DC 與匹配",
    "summary_zh": "分開 NMOS／PMOS 的電流，求總跨導與有限輸出導納下的增益。",
    "html": "../derivations/ch02/06-inverter-dc.html",
    "markdown": "../derivations/ch02/06-inverter-dc.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0235",
    "pdf_page": 67,
    "printed_page": 68,
    "module_id": "00-conventions",
    "title": "章節脈絡與共同模型",
    "summary_zh": "跟隨器部分的過渡頁；相應推導見第 08–11 組。",
    "html": "../derivations/ch02/00-conventions.html",
    "markdown": "../derivations/ch02/00-conventions.md",
    "status": "context_reviewed_no_independent_derivation",
    "discrepancy_ids": [],
    "sfg": "not_applicable",
    "sfg_reason": "本頁為章節脈絡，無獨立小訊號模型需建圖。"
  },
  {
    "slide_id": "0236",
    "pdf_page": 67,
    "printed_page": 68,
    "module_id": "08-followers-dc",
    "title": "源極與射極跟隨器：DC",
    "summary_zh": "由輸出節點 KCL 求跟隨增益、輸出阻抗與 bulk 固定時的 body effect。",
    "html": "../derivations/ch02/08-followers-dc.html",
    "markdown": "../derivations/ch02/08-followers-dc.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0237",
    "pdf_page": 68,
    "printed_page": 69,
    "module_id": "08-followers-dc",
    "title": "源極與射極跟隨器：DC",
    "summary_zh": "由輸出節點 KCL 求跟隨增益、輸出阻抗與 bulk 固定時的 body effect。",
    "html": "../derivations/ch02/08-followers-dc.html",
    "markdown": "../derivations/ch02/08-followers-dc.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0238",
    "pdf_page": 68,
    "printed_page": 69,
    "module_id": "08-followers-dc",
    "title": "源極與射極跟隨器：DC",
    "summary_zh": "由輸出節點 KCL 求跟隨增益、輸出阻抗與 bulk 固定時的 body effect。",
    "html": "../derivations/ch02/08-followers-dc.html",
    "markdown": "../derivations/ch02/08-followers-dc.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0239",
    "pdf_page": 69,
    "printed_page": 70,
    "module_id": "08-followers-dc",
    "title": "源極與射極跟隨器：DC",
    "summary_zh": "由輸出節點 KCL 求跟隨增益、輸出阻抗與 bulk 固定時的 body effect。",
    "html": "../derivations/ch02/08-followers-dc.html",
    "markdown": "../derivations/ch02/08-followers-dc.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0240",
    "pdf_page": 69,
    "printed_page": 70,
    "module_id": "08-followers-dc",
    "title": "源極與射極跟隨器：DC",
    "summary_zh": "由輸出節點 KCL 求跟隨增益、輸出阻抗與 bulk 固定時的 body effect。",
    "html": "../derivations/ch02/08-followers-dc.html",
    "markdown": "../derivations/ch02/08-followers-dc.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0241",
    "pdf_page": 70,
    "printed_page": 71,
    "module_id": "09-followers-hf",
    "title": "源極跟隨器：極點、零點與峰化",
    "summary_zh": "直接求二次分母與判別式，並將零點代入分母確認相消條件。",
    "html": "../derivations/ch02/09-followers-hf.html",
    "markdown": "../derivations/ch02/09-followers-hf.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "used",
    "sfg_reason": "三個電壓節點，保留 gate–source 雙向耦合與前向跨導／電容支路。"
  },
  {
    "slide_id": "0242",
    "pdf_page": 71,
    "printed_page": 72,
    "module_id": "09-followers-hf",
    "title": "源極跟隨器：極點、零點與峰化",
    "summary_zh": "直接求二次分母與判別式，並將零點代入分母確認相消條件。",
    "html": "../derivations/ch02/09-followers-hf.html",
    "markdown": "../derivations/ch02/09-followers-hf.md",
    "status": "derived_with_source_notes",
    "discrepancy_ids": [
      "D06"
    ],
    "sfg": "used",
    "sfg_reason": "三個電壓節點，保留 gate–source 雙向耦合與前向跨導／電容支路。"
  },
  {
    "slide_id": "0243",
    "pdf_page": 71,
    "printed_page": 72,
    "module_id": "09-followers-hf",
    "title": "源極跟隨器：極點、零點與峰化",
    "summary_zh": "直接求二次分母與判別式，並將零點代入分母確認相消條件。",
    "html": "../derivations/ch02/09-followers-hf.html",
    "markdown": "../derivations/ch02/09-followers-hf.md",
    "status": "derived_with_source_notes",
    "discrepancy_ids": [
      "D07"
    ],
    "sfg": "used",
    "sfg_reason": "三個電壓節點，保留 gate–source 雙向耦合與前向跨導／電容支路。"
  },
  {
    "slide_id": "0244",
    "pdf_page": 72,
    "printed_page": 73,
    "module_id": "10-emitter-hf",
    "title": "射極跟隨器：有限 beta 與高頻阻抗",
    "summary_zh": "增加 base 電流與隨跨導變動的擴散電容，標明教材中心跨導式的未解差異。",
    "html": "../derivations/ch02/10-emitter-hf.html",
    "markdown": "../derivations/ch02/10-emitter-hf.md",
    "status": "derived_with_source_notes",
    "discrepancy_ids": [
      "D08"
    ],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0245",
    "pdf_page": 72,
    "printed_page": 73,
    "module_id": "11-active-inductors",
    "title": "主動電感與差動調諧負載",
    "summary_zh": "從跟隨器輸出阻抗作低頻展開，再核對差動埠與半電路的兩倍關係。",
    "html": "../derivations/ch02/11-active-inductors.html",
    "markdown": "../derivations/ch02/11-active-inductors.md",
    "status": "derived_with_source_notes",
    "discrepancy_ids": [
      "D09"
    ],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0246",
    "pdf_page": 73,
    "printed_page": 74,
    "module_id": "11-active-inductors",
    "title": "主動電感與差動調諧負載",
    "summary_zh": "從跟隨器輸出阻抗作低頻展開，再核對差動埠與半電路的兩倍關係。",
    "html": "../derivations/ch02/11-active-inductors.html",
    "markdown": "../derivations/ch02/11-active-inductors.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0247",
    "pdf_page": 73,
    "printed_page": 74,
    "module_id": "11-active-inductors",
    "title": "主動電感與差動調諧負載",
    "summary_zh": "從跟隨器輸出阻抗作低頻展開，再核對差動埠與半電路的兩倍關係。",
    "html": "../derivations/ch02/11-active-inductors.html",
    "markdown": "../derivations/ch02/11-active-inductors.md",
    "status": "derived_with_source_notes",
    "discrepancy_ids": [
      "D10"
    ],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0248",
    "pdf_page": 74,
    "printed_page": 75,
    "module_id": "00-conventions",
    "title": "章節脈絡與共同模型",
    "summary_zh": "共閘與 cascode 部分的過渡頁；相應推導見第 12–18 組。",
    "html": "../derivations/ch02/00-conventions.html",
    "markdown": "../derivations/ch02/00-conventions.md",
    "status": "context_reviewed_no_independent_derivation",
    "discrepancy_ids": [],
    "sfg": "not_applicable",
    "sfg_reason": "本頁為章節脈絡，無獨立小訊號模型需建圖。"
  },
  {
    "slide_id": "0249",
    "pdf_page": 74,
    "printed_page": 75,
    "module_id": "12-common-gate",
    "title": "共閘極的輸入、輸出與轉阻",
    "summary_zh": "先固定測試電流方向與負載終端，再由同一組 KCL 得三種埠量。",
    "html": "../derivations/ch02/12-common-gate.html",
    "markdown": "../derivations/ch02/12-common-gate.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0250",
    "pdf_page": 75,
    "printed_page": 76,
    "module_id": "12-common-gate",
    "title": "共閘極的輸入、輸出與轉阻",
    "summary_zh": "先固定測試電流方向與負載終端，再由同一組 KCL 得三種埠量。",
    "html": "../derivations/ch02/12-common-gate.html",
    "markdown": "../derivations/ch02/12-common-gate.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0251",
    "pdf_page": 75,
    "printed_page": 76,
    "module_id": "12-common-gate",
    "title": "共閘極的輸入、輸出與轉阻",
    "summary_zh": "先固定測試電流方向與負載終端，再由同一組 KCL 得三種埠量。",
    "html": "../derivations/ch02/12-common-gate.html",
    "markdown": "../derivations/ch02/12-common-gate.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0252",
    "pdf_page": 76,
    "printed_page": 77,
    "module_id": "12-common-gate",
    "title": "共閘極的輸入、輸出與轉阻",
    "summary_zh": "先固定測試電流方向與負載終端，再由同一組 KCL 得三種埠量。",
    "html": "../derivations/ch02/12-common-gate.html",
    "markdown": "../derivations/ch02/12-common-gate.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0253",
    "pdf_page": 76,
    "printed_page": 77,
    "module_id": "13-cascode",
    "title": "Cascode：有限輸出電阻的完整式",
    "summary_zh": "求有效跨導、輸出阻抗、主極點與 GBW，逐步回到兩個 intrinsic gain 的乘積。",
    "html": "../derivations/ch02/13-cascode.html",
    "markdown": "../derivations/ch02/13-cascode.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0254",
    "pdf_page": 77,
    "printed_page": 78,
    "module_id": "13-cascode",
    "title": "Cascode：有限輸出電阻的完整式",
    "summary_zh": "求有效跨導、輸出阻抗、主極點與 GBW，逐步回到兩個 intrinsic gain 的乘積。",
    "html": "../derivations/ch02/13-cascode.html",
    "markdown": "../derivations/ch02/13-cascode.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0255",
    "pdf_page": 77,
    "printed_page": 78,
    "module_id": "13-cascode",
    "title": "Cascode：有限輸出電阻的完整式",
    "summary_zh": "求有效跨導、輸出阻抗、主極點與 GBW，逐步回到兩個 intrinsic gain 的乘積。",
    "html": "../derivations/ch02/13-cascode.html",
    "markdown": "../derivations/ch02/13-cascode.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0256",
    "pdf_page": 78,
    "printed_page": 79,
    "module_id": "14-cascode-miller",
    "title": "Cascode 的 Miller 電容",
    "summary_zh": "保留三個電壓節點，推導二階分母及仍然存在的 RHP 零點。",
    "html": "../derivations/ch02/14-cascode-miller.html",
    "markdown": "../derivations/ch02/14-cascode-miller.md",
    "status": "derived_with_source_notes",
    "discrepancy_ids": [
      "D11"
    ],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0257",
    "pdf_page": 78,
    "printed_page": 79,
    "module_id": "15-cascode-middle-cap",
    "title": "Cascode 中間節點電容",
    "summary_zh": "由二節點矩陣求精確極點，再得到中間電容兩個範圍的漸近式。",
    "html": "../derivations/ch02/15-cascode-middle-cap.html",
    "markdown": "../derivations/ch02/15-cascode-middle-cap.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0258",
    "pdf_page": 79,
    "printed_page": 80,
    "module_id": "16-telescopic-folded",
    "title": "Telescopic 與 folded cascode",
    "summary_zh": "以支路輸出電阻並聯及 headroom 條件說明增益、擺幅與偏壓電流分配。",
    "html": "../derivations/ch02/16-telescopic-folded.html",
    "markdown": "../derivations/ch02/16-telescopic-folded.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0259",
    "pdf_page": 80,
    "printed_page": 81,
    "module_id": "16-telescopic-folded",
    "title": "Telescopic 與 folded cascode",
    "summary_zh": "以支路輸出電阻並聯及 headroom 條件說明增益、擺幅與偏壓電流分配。",
    "html": "../derivations/ch02/16-telescopic-folded.html",
    "markdown": "../derivations/ch02/16-telescopic-folded.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0260",
    "pdf_page": 80,
    "printed_page": 81,
    "module_id": "17-cascade",
    "title": "級聯與 Miller 補償",
    "summary_zh": "先說明負載限制，再推導兩級補償的極點分離、GBW 與 RHP 零點。",
    "html": "../derivations/ch02/17-cascade.html",
    "markdown": "../derivations/ch02/17-cascade.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0261",
    "pdf_page": 81,
    "printed_page": 82,
    "module_id": "17-cascade",
    "title": "級聯與 Miller 補償",
    "summary_zh": "先說明負載限制，再推導兩級補償的極點分離、GBW 與 RHP 零點。",
    "html": "../derivations/ch02/17-cascade.html",
    "markdown": "../derivations/ch02/17-cascade.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0262",
    "pdf_page": 81,
    "printed_page": 82,
    "module_id": "18-gain-boosting",
    "title": "Regulated cascode 與 gain boosting",
    "summary_zh": "保留輔助放大器的負號與單極點模型，檢查增加的極零對和相消條件。",
    "html": "../derivations/ch02/18-gain-boosting.html",
    "markdown": "../derivations/ch02/18-gain-boosting.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "used",
    "sfg_reason": "四個電壓節點，保留輔助放大器與其局部負回授，不將其隱藏在總增益內。"
  },
  {
    "slide_id": "0263",
    "pdf_page": 82,
    "printed_page": 83,
    "module_id": "18-gain-boosting",
    "title": "Regulated cascode 與 gain boosting",
    "summary_zh": "保留輔助放大器的負號與單極點模型，檢查增加的極零對和相消條件。",
    "html": "../derivations/ch02/18-gain-boosting.html",
    "markdown": "../derivations/ch02/18-gain-boosting.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "used",
    "sfg_reason": "四個電壓節點，保留輔助放大器與其局部負回授，不將其隱藏在總增益內。"
  },
  {
    "slide_id": "0264",
    "pdf_page": 82,
    "printed_page": 83,
    "module_id": "18-gain-boosting",
    "title": "Regulated cascode 與 gain boosting",
    "summary_zh": "保留輔助放大器的負號與單極點模型，檢查增加的極零對和相消條件。",
    "html": "../derivations/ch02/18-gain-boosting.html",
    "markdown": "../derivations/ch02/18-gain-boosting.md",
    "status": "derived_with_source_notes",
    "discrepancy_ids": [
      "D12"
    ],
    "sfg": "used",
    "sfg_reason": "四個電壓節點，保留輔助放大器與其局部負回授，不將其隱藏在總增益內。"
  },
  {
    "slide_id": "0265",
    "pdf_page": 83,
    "printed_page": 84,
    "module_id": "19-doublet-settling",
    "title": "Doublet 與精密 settling",
    "summary_zh": "從閉迴路傳輸作部分分式，顯示小慢速殘值如何限制穩定時間。",
    "html": "../derivations/ch02/19-doublet-settling.html",
    "markdown": "../derivations/ch02/19-doublet-settling.md",
    "status": "derived_with_source_notes",
    "discrepancy_ids": [
      "D13"
    ],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0266",
    "pdf_page": 83,
    "printed_page": 84,
    "module_id": "20-port-summary",
    "title": "MOS／BJT 埠量總結",
    "summary_zh": "用測試源核對有限 beta、輸入電阻與退化級的輸出電阻，避免把表格破折號當零。",
    "html": "../derivations/ch02/20-port-summary.html",
    "markdown": "../derivations/ch02/20-port-summary.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0267",
    "pdf_page": 84,
    "printed_page": 85,
    "module_id": "20-port-summary",
    "title": "MOS／BJT 埠量總結",
    "summary_zh": "用測試源核對有限 beta、輸入電阻與退化級的輸出電阻，避免把表格破折號當零。",
    "html": "../derivations/ch02/20-port-summary.html",
    "markdown": "../derivations/ch02/20-port-summary.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0268",
    "pdf_page": 84,
    "printed_page": 85,
    "module_id": "20-port-summary",
    "title": "MOS／BJT 埠量總結",
    "summary_zh": "用測試源核對有限 beta、輸入電阻與退化級的輸出電阻，避免把表格破折號當零。",
    "html": "../derivations/ch02/20-port-summary.html",
    "markdown": "../derivations/ch02/20-port-summary.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0269",
    "pdf_page": 85,
    "printed_page": 86,
    "module_id": "12-common-gate",
    "title": "共閘極的輸入、輸出與轉阻",
    "summary_zh": "先固定測試電流方向與負載終端，再由同一組 KCL 得三種埠量。",
    "html": "../derivations/ch02/12-common-gate.html",
    "markdown": "../derivations/ch02/12-common-gate.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0270",
    "pdf_page": 85,
    "printed_page": 86,
    "module_id": "20-port-summary",
    "title": "MOS／BJT 埠量總結",
    "summary_zh": "用測試源核對有限 beta、輸入電阻與退化級的輸出電阻，避免把表格破折號當零。",
    "html": "../derivations/ch02/20-port-summary.html",
    "markdown": "../derivations/ch02/20-port-summary.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0271",
    "pdf_page": 86,
    "printed_page": 87,
    "module_id": "12-common-gate",
    "title": "共閘極的輸入、輸出與轉阻",
    "summary_zh": "先固定測試電流方向與負載終端，再由同一組 KCL 得三種埠量。",
    "html": "../derivations/ch02/12-common-gate.html",
    "markdown": "../derivations/ch02/12-common-gate.md",
    "status": "derived_in_stated_model",
    "discrepancy_ids": [],
    "sfg": "not_needed",
    "sfg_reason": "此組以微分、KCL 或矩陣即可說明機制，沒有必要另畫 SFG。"
  },
  {
    "slide_id": "0272",
    "pdf_page": 86,
    "printed_page": 87,
    "module_id": "00-conventions",
    "title": "章節脈絡與共同模型",
    "summary_zh": "由單管組態轉向電流鏡與差動對的章末目錄頁；無獨立待推導公式。",
    "html": "../derivations/ch02/00-conventions.html",
    "markdown": "../derivations/ch02/00-conventions.md",
    "status": "context_reviewed_no_independent_derivation",
    "discrepancy_ids": [],
    "sfg": "not_applicable",
    "sfg_reason": "本頁為章節脈絡，無獨立小訊號模型需建圖。"
  }
]