Metamath Proof Explorer


Theorem ispridl2

Description: Obsolete theorem, use prmidl2 instead. A condition that shows an ideal is prime. For commutative rings, this is often taken to be the definition. See ispridlc for the equivalence in the commutative case. (Contributed by Jeff Madsen, 19-Jun-2010) (Proof modification is discouraged.) (New usage is discouraged.)

Ref Expression
Hypotheses ispridl2.1 G = 1 st R
ispridl2.2 H = 2 nd R
ispridl2.3 X = ran G
Assertion ispridl2 R RingOps P Idl R P X a X b X a H b P a P b P P PrIdl R

Proof

Step Hyp Ref Expression
1 ispridl2.1 G = 1 st R
2 ispridl2.2 H = 2 nd R
3 ispridl2.3 X = ran G
4 1 3 idlss R RingOps r Idl R r X
5 ssralv r X a X b X a H b P a P b P a r b X a H b P a P b P
6 4 5 syl R RingOps r Idl R a X b X a H b P a P b P a r b X a H b P a P b P
7 6 adantrr R RingOps r Idl R s Idl R a X b X a H b P a P b P a r b X a H b P a P b P
8 1 3 idlss R RingOps s Idl R s X
9 ssralv s X b X a H b P a P b P b s a H b P a P b P
10 9 ralimdv s X a r b X a H b P a P b P a r b s a H b P a P b P
11 8 10 syl R RingOps s Idl R a r b X a H b P a P b P a r b s a H b P a P b P
12 11 adantrl R RingOps r Idl R s Idl R a r b X a H b P a P b P a r b s a H b P a P b P
13 7 12 syld R RingOps r Idl R s Idl R a X b X a H b P a P b P a r b s a H b P a P b P
14 13 adantlr R RingOps P Idl R r Idl R s Idl R a X b X a H b P a P b P a r b s a H b P a P b P
15 r19.26-2 a r b s a H b P a H b P a P b P a r b s a H b P a r b s a H b P a P b P
16 pm3.35 a H b P a H b P a P b P a P b P
17 16 2ralimi a r b s a H b P a H b P a P b P a r b s a P b P
18 2ralor a r b s a P b P a r a P b s b P
19 dfss3 r P a r a P
20 dfss3 s P b s b P
21 19 20 orbi12i r P s P a r a P b s b P
22 18 21 sylbb2 a r b s a P b P r P s P
23 17 22 syl a r b s a H b P a H b P a P b P r P s P
24 15 23 sylbir a r b s a H b P a r b s a H b P a P b P r P s P
25 24 expcom a r b s a H b P a P b P a r b s a H b P r P s P
26 14 25 syl6 R RingOps P Idl R r Idl R s Idl R a X b X a H b P a P b P a r b s a H b P r P s P
27 26 ralrimdvva R RingOps P Idl R a X b X a H b P a P b P r Idl R s Idl R a r b s a H b P r P s P
28 27 ex R RingOps P Idl R a X b X a H b P a P b P r Idl R s Idl R a r b s a H b P r P s P
29 28 adantrd R RingOps P Idl R P X a X b X a H b P a P b P r Idl R s Idl R a r b s a H b P r P s P
30 29 imdistand R RingOps P Idl R P X a X b X a H b P a P b P P Idl R P X r Idl R s Idl R a r b s a H b P r P s P
31 df-3an P Idl R P X a X b X a H b P a P b P P Idl R P X a X b X a H b P a P b P
32 df-3an P Idl R P X r Idl R s Idl R a r b s a H b P r P s P P Idl R P X r Idl R s Idl R a r b s a H b P r P s P
33 30 31 32 3imtr4g R RingOps P Idl R P X a X b X a H b P a P b P P Idl R P X r Idl R s Idl R a r b s a H b P r P s P
34 1 2 3 ispridl R RingOps P PrIdl R P Idl R P X r Idl R s Idl R a r b s a H b P r P s P
35 33 34 sylibrd R RingOps P Idl R P X a X b X a H b P a P b P P PrIdl R
36 35 imp R RingOps P Idl R P X a X b X a H b P a P b P P PrIdl R