Metamath Proof Explorer


Theorem inagcgratrgmain

Description: In-angle transport, the non-degenerate main case, with its three constructions carried as hypotheses: J the segment point from isinag , S and T the normalized target arms from iscgrag , and Q the transferred point from cgrgptxfr . Concludes the body of cgrainag 's existential at the witness Q . **No acopy and no half-plane fact**: the witness is the transferred point, not a fresh angle copy, which is what removes the non-collinearity obligations. (Contributed by JAG, 12-Aug-2026)

Ref Expression
Hypotheses inagcgratrgmain.p ⊢ P = Base G
inagcgratrgmain.i ⊢ I = Itv ⁡ G
inagcgratrgmain.k ⊢ K = hl 𝒢 ⁡ G
inagcgratrgmain.g ⊢ φ → G ∈ 𝒢 Tarski
inagcgratrgmain.d ⊢ φ → D ∈ P
inagcgratrgmain.e ⊢ φ → E ∈ P
inagcgratrgmain.w ⊢ φ → W ∈ P
inagcgratrgmain.x ⊢ φ → X ∈ P
inagcgratrgmain.y ⊢ φ → Y ∈ P
inagcgratrgmain.z ⊢ φ → Z ∈ P
inagcgratrgmain.j ⊢ φ → J ∈ P
inagcgratrgmain.s ⊢ φ → S ∈ P
inagcgratrgmain.t ⊢ φ → T ∈ P
inagcgratrgmain.q ⊢ φ → Q ∈ P
inagcgratrgmain.de ⊢ φ → D ≠ E
inagcgratrgmain.jw ⊢ φ → J K ⁡ E W
inagcgratrgmain.sx ⊢ φ → S K ⁡ Y X
inagcgratrgmain.tz ⊢ φ → T K ⁡ Y Z
inagcgratrgmain.q1 ⊢ φ → Q ∈ S I T
inagcgratrgmain.sub ⊢ φ → ⟨“ DEJ ”⟩ ∼ 𝒢 ⁡ G ⟨“ SYQ ”⟩
inagcgratrgmain.m ⊢ - ˙ = dist ⁡ G
Assertion inagcgratrgmain ⊢ φ → Q ∈ 𝒢 ∠ ⁡ G ⟨“ XYZ ”⟩ ∧ ⟨“ DEW ”⟩ ∼ 𝒢 ∠ ⁡ G ⟨“ XYQ ”⟩

Proof

Step Hyp Ref Expression
1 inagcgratrgmain.p ⊢ P = Base G
2 inagcgratrgmain.i ⊢ I = Itv ⁡ G
3 inagcgratrgmain.k ⊢ K = hl 𝒢 ⁡ G
4 inagcgratrgmain.g ⊢ φ → G ∈ 𝒢 Tarski
5 inagcgratrgmain.d ⊢ φ → D ∈ P
6 inagcgratrgmain.e ⊢ φ → E ∈ P
7 inagcgratrgmain.w ⊢ φ → W ∈ P
8 inagcgratrgmain.x ⊢ φ → X ∈ P
9 inagcgratrgmain.y ⊢ φ → Y ∈ P
10 inagcgratrgmain.z ⊢ φ → Z ∈ P
11 inagcgratrgmain.j ⊢ φ → J ∈ P
12 inagcgratrgmain.s ⊢ φ → S ∈ P
13 inagcgratrgmain.t ⊢ φ → T ∈ P
14 inagcgratrgmain.q ⊢ φ → Q ∈ P
15 inagcgratrgmain.de ⊢ φ → D ≠ E
16 inagcgratrgmain.jw ⊢ φ → J K ⁡ E W
17 inagcgratrgmain.sx ⊢ φ → S K ⁡ Y X
18 inagcgratrgmain.tz ⊢ φ → T K ⁡ Y Z
19 inagcgratrgmain.q1 ⊢ φ → Q ∈ S I T
20 inagcgratrgmain.sub ⊢ φ → ⟨“ DEJ ”⟩ ∼ 𝒢 ⁡ G ⟨“ SYQ ”⟩
21 inagcgratrgmain.m ⊢ - ˙ = dist ⁡ G
22 1 2 3 12 8 9 4 17 hlne1 ⊢ φ → S ≠ Y
23 1 2 3 13 10 9 4 18 hlne1 ⊢ φ → T ≠ Y
24 eqid ⊢ ∼ 𝒢 ⁡ G = ∼ 𝒢 ⁡ G
25 1 21 2 24 4 5 6 11 12 9 14 20 cgr3simp2 ⊢ φ → E - ˙ J = Y - ˙ Q
26 1 2 3 11 7 6 4 16 hlne1 ⊢ φ → J ≠ E
27 26 necomd ⊢ φ → E ≠ J
28 1 21 2 4 6 11 9 14 25 27 tgcgrneq ⊢ φ → Y ≠ Q
29 28 necomd ⊢ φ → Q ≠ Y
30 1 2 3 14 14 9 4 29 hlid ⊢ φ → Q K ⁡ Y Q
31 30 olcd ⊢ φ → Q = Y ∨ Q K ⁡ Y Q
32 1 2 3 14 12 9 13 4 14 22 23 29 19 31 isinagd ⊢ φ → Q ∈ 𝒢 ∠ ⁡ G ⟨“ SYT ”⟩
33 1 2 3 12 8 9 4 17 hlcomd ⊢ φ → X K ⁡ Y S
34 1 2 3 13 10 9 4 18 hlcomd ⊢ φ → Z K ⁡ Y T
35 1 2 3 14 12 9 13 4 32 8 10 14 33 34 30 inaghl ⊢ φ → Q ∈ 𝒢 ∠ ⁡ G ⟨“ XYZ ”⟩
36 1 2 4 3 5 6 11 12 9 14 15 27 20 cgrcgra ⊢ φ → ⟨“ DEJ ”⟩ ∼ 𝒢 ∠ ⁡ G ⟨“ SYQ ”⟩
37 1 2 3 4 5 6 11 12 9 14 36 8 33 cgrahl1 ⊢ φ → ⟨“ DEJ ”⟩ ∼ 𝒢 ∠ ⁡ G ⟨“ XYQ ”⟩
38 1 2 4 3 5 6 11 8 9 14 37 cgracom ⊢ φ → ⟨“ XYQ ”⟩ ∼ 𝒢 ∠ ⁡ G ⟨“ DEJ ”⟩
39 1 2 3 11 7 6 4 16 hlcomd ⊢ φ → W K ⁡ E J
40 1 2 3 4 8 9 14 5 6 11 38 7 39 cgrahl2 ⊢ φ → ⟨“ XYQ ”⟩ ∼ 𝒢 ∠ ⁡ G ⟨“ DEW ”⟩
41 1 2 4 3 8 9 14 5 6 7 40 cgracom ⊢ φ → ⟨“ DEW ”⟩ ∼ 𝒢 ∠ ⁡ G ⟨“ XYQ ”⟩
42 35 41 jca ⊢ φ → Q ∈ 𝒢 ∠ ⁡ G ⟨“ XYZ ”⟩ ∧ ⟨“ DEW ”⟩ ∼ 𝒢 ∠ ⁡ G ⟨“ XYQ ”⟩