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LeanPool
.
Lentil
.
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.
BigOp
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Imports
Init
LeanPool.Lentil.Rules.Basic
Imported by
TLA
.
bigwedge_list_nil
TLA
.
bigwedge_list_cons
TLA
.
bigwedge_list_append
TLA
.
bigwedge_forall_list
TLA
.
bigwedge_forall_fintype_list
TLA
.
bigwedge_forall_swap
TLA
.
bigwedge_inner_and_split
TLA
.
always_bigwedge
TLA
.
eventually_always_bigwedge_distrib
TLA
.
bigvee_list_nil
TLA
.
bigvee_list_cons
TLA
.
bigvee_exists_list
TLA
.
bigvee_exists_fintype_list
TLA
.
bigvee_and_distrib
TLA
.
bigwedge_bigvee_match
Theorems about big operators (e.g.,
⋀
,
⋁
).
source
theorem
TLA
.
bigwedge_list_nil
{
α
:
Type
u}
{
β
:
Type
v}
(
f
:
β
→
pred
α
)
:
(
⋀
x
∈
[
]
,
(
f
x
)
)
=tla=
(
⊤
)
source
theorem
TLA
.
bigwedge_list_cons
{
α
:
Type
u}
{
β
:
Type
v}
(
f
:
β
→
pred
α
)
(
l
:
List
β
)
(
b
:
β
)
:
(
⋀
x
∈
b
::
l
,
(
f
x
)
)
=tla=
(
(
f
b
)
∧
⋀
x
∈
l
,
(
f
x
)
)
source
theorem
TLA
.
bigwedge_list_append
{
α
:
Type
u}
{
β
:
Type
v}
(
f
:
β
→
pred
α
)
(
l1
l2
:
List
β
)
:
(
⋀
x
∈
l1
++
l2
,
(
f
x
)
)
=tla=
(
(
⋀
x
∈
l1
,
(
f
x
)
)
∧
⋀
x
∈
l2
,
(
f
x
)
)
source
theorem
TLA
.
bigwedge_forall_list
{
α
:
Type
u}
{
β
:
Type
v}
(
f
:
β
→
pred
α
)
(
l
:
List
β
)
:
(
⋀
x
∈
l
,
(
f
x
)
)
=tla=
(
∀
x
,
(
⌞
x
∈
l
⌟
→
(
f
x
)
)
)
source
theorem
TLA
.
bigwedge_forall_fintype_list
{
α
:
Type
u}
{
β
:
Type
v}
(
f
:
β
→
pred
α
)
(
l
:
List
β
)
:
(
⋀
x
∈
l
,
(
f
x
)
)
=tla=
(
∀
x
,
(
f
l
[
x
]
)
)
source
theorem
TLA
.
bigwedge_forall_swap
{
α
:
Type
u}
{
β
:
Type
v}
(
l
:
List
β
)
{
γ
:
Type
w}
(
f
:
β
→
γ
→
pred
α
)
:
(
∀
c
,
⋀
x
∈
l
,
(
f
x
c
)
)
=tla=
(
⋀
x
∈
l
,
∀
c
,
(
f
x
c
)
)
source
theorem
TLA
.
bigwedge_inner_and_split
{
α
:
Type
u}
{
β
:
Type
v}
(
f
g
:
β
→
pred
α
)
(
l
:
List
β
)
:
(
⋀
x
∈
l
,
(
f
x
)
∧
(
g
x
)
)
=tla=
(
(
⋀
x
∈
l
,
(
f
x
)
)
∧
⋀
x
∈
l
,
(
g
x
)
)
source
theorem
TLA
.
always_bigwedge
{
α
:
Type
u}
{
β
:
Type
v}
(
f
:
β
→
pred
α
)
(
l
:
List
β
)
:
(
□
⋀
x
∈
l
,
(
f
x
)
)
=tla=
(
⋀
x
∈
l
,
□
(
f
x
)
)
source
theorem
TLA
.
eventually_always_bigwedge_distrib
{
α
:
Type
u}
{
β
:
Type
v}
(
f
:
β
→
pred
α
)
(
l
:
List
β
)
:
(
◇
□
⋀
x
∈
l
,
(
f
x
)
)
=tla=
(
⋀
x
∈
l
,
◇
□
(
f
x
)
)
source
theorem
TLA
.
bigvee_list_nil
{
α
:
Type
u}
{
β
:
Type
v}
(
f
:
β
→
pred
α
)
:
(
⋁
x
∈
[
]
,
(
f
x
)
)
=tla=
(
⊥
)
source
theorem
TLA
.
bigvee_list_cons
{
α
:
Type
u}
{
β
:
Type
v}
(
f
:
β
→
pred
α
)
(
l
:
List
β
)
(
b
:
β
)
:
(
⋁
x
∈
b
::
l
,
(
f
x
)
)
=tla=
(
(
f
b
)
∨
⋁
x
∈
l
,
(
f
x
)
)
source
theorem
TLA
.
bigvee_exists_list
{
α
:
Type
u}
{
β
:
Type
v}
(
f
:
β
→
pred
α
)
(
l
:
List
β
)
:
(
⋁
x
∈
l
,
(
f
x
)
)
=tla=
(
∃
x
,
(
⌞
x
∈
l
⌟
∧
(
f
x
)
)
)
source
theorem
TLA
.
bigvee_exists_fintype_list
{
α
:
Type
u}
{
β
:
Type
v}
(
f
:
β
→
pred
α
)
(
l
:
List
β
)
:
(
⋁
x
∈
l
,
(
f
x
)
)
=tla=
(
∃
x
,
(
f
l
[
x
]
)
)
source
theorem
TLA
.
bigvee_and_distrib
{
α
:
Type
u}
{
β
:
Type
v}
(
f
:
β
→
pred
α
)
(
l
:
List
β
)
(
p
:
pred
α
)
:
(
p
∧
⋁
x
∈
l
,
(
f
x
)
)
=tla=
(
⋁
x
∈
l
,
p
∧
(
f
x
)
)
source
theorem
TLA
.
bigwedge_bigvee_match
{
α
:
Type
u}
{
β
:
Type
v}
(
f
g
:
β
→
pred
α
)
(
l
:
List
β
)
:
(
(
⋀
x
∈
l
,
(
f
x
)
)
∧
⋁
x
∈
l
,
(
g
x
)
)
|-tla-
(
⋁
x
∈
l
,
(
f
x
)
∧
(
g
x
)
)