statement
stringlengths
1
4.33k
proof
stringlengths
0
37.9k
type
stringclasses
25 values
symbolic_name
stringlengths
1
67
library
stringclasses
10 values
filename
stringclasses
112 values
imports
listlengths
2
138
deps
listlengths
0
64
docstring
stringclasses
798 values
source_url
stringclasses
1 value
commit
stringclasses
1 value
test_eq_bool x : (x <= 2) = (-x >= -2).
Proof. lra. Qed.
Lemma
test_eq_bool
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_not x : x <= 2 -> ~ (x > 2).
Proof. lra. Qed.
Lemma
test_not
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_negb x : x <= 2 -> ~~ (x > 2).
Proof. lra. Qed.
Lemma
test_negb
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_and x : x <= 2 -> (x <= 3 /\ x <= 4).
Proof. lra. Qed.
Lemma
test_and
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_andb x : x <= 2 -> (x <= 3) && (x <= 4).
Proof. lra. Qed.
Lemma
test_andb
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_or x : x <= 2 -> (x <= 3 \/ x <= 1).
Proof. lra. Qed.
Lemma
test_or
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_orb x : x <= 2 -> (x <= 3) || (x <= 1).
Proof. lra. Qed.
Lemma
test_orb
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_exfalso x (xle2 : x <= 2) (xge3 : x >= 3) : bool.
Proof. lra. Qed.
Lemma
test_exfalso
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_rat_constant x : 0 <= x -> 1 / 3 * x <= 2^-1 * x.
Proof. lra. Qed.
Lemma
test_rat_constant
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_rfstr (x : rat) : (x <= 2) || true = true.
Proof. lra. Qed.
Lemma
test_rfstr
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[ "rat" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
plus_minus x y : 0 = x + y -> 0 = x - y -> 0 = x /\ 0 = y.
Proof. lra. Qed.
Lemma
plus_minus
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
plus_minus' x y : 0 = x + y -> 0 = x - y -> 0 = x /\ 0 = y.
Proof. move=> *; lra. Qed.
Lemma
plus_minus'
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
cst_test : 5^+5 = 5 * 5 * 5 * 5 * 5 :> F.
Proof. lra. Qed.
Lemma
cst_test
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
binomial x y : (x + y)^+2 = x^+2 + 2 * x * y + y^+2.
Proof. move=> *; lra. Qed.
Lemma
binomial
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
hol_light19 x y : 2 * y + x = (x + y) + y.
Proof. lra. Qed.
Lemma
hol_light19
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
vcgen_25 (n m jt j it i : F) : 1 * it - 2 * i - 1 = 0 -> 1 * jt - 2 * j - 1 = 0 -> 1 * n - 10 = 0 -> 0 <= -(4028%:R) * i + 6222%:R * j + 705 * m + -(16674%:R) -> 0 <= - 418 * i + 651 * j + 94 * m + -(1866%:R) -> 0 <= - 209 * i + 302 * j + 47 * m - 839 -> 0 <= - 1 * i + 1 * j - 1 -> 0 <= - 1 * j + 1 * m...
Proof. move=> *; lra. Qed.
Lemma
vcgen_25
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
l1 x y z : `|x - z| <= `|x - y| + `|y - z|.
Proof. Fail intros; split_Rabs; lra. (* TODO should work *) Abort.
Lemma
l1
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
l2 x y : x < `|y| -> y < 1 -> x >= 0 -> - y <= 1 -> `|x| <= 1.
Proof. Fail intros; split_Rabs; lra. (* TODO should work *) Abort.
Lemma
l2
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
opp_eq_0_iff x : -x = 0 <-> x = 0.
Proof. lra. Qed.
Lemma
opp_eq_0_iff
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
Bug 5073
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
motzkin' x y : (x^+2 + y^+2 + 1) * (x^+2 * y^+4 + x^+4*y^+2 + 1 - 3 * x^+2 * y^+2) >= 0.
Proof. move=> *. (* Requires CSDP *) (* psatz 3. *) (* Qed. *) Abort.
Lemma
motzkin'
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_abstract_rmorphism (R : realDomainType) (f : {rmorphism R -> R}) (x y : R) : f y >= 0 -> f x + 2 * f (y + 1) <= f (3 * y + x) + 2.
Proof. lra. Qed.
Example
test_abstract_rmorphism
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_concrete_rmorphism (R : realFieldType) (x y : rat) : ratr y >= 0 :> R -> ratr x + 2 * ratr (y + 1) <= ratr (3 * y + x) + 2 :> R.
Proof. lra. Qed.
Example
test_concrete_rmorphism
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[ "rat", "ratr" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_preorderType (T : preorderType disp) : Order.Preorder.on T = Order.Preorder.on T^d^d
:= erefl.
Let
eq_dual_dual_preorderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_porderType (T : porderType disp) : Order.POrder.on T = Order.POrder.on T^d^d
:= erefl.
Let
eq_dual_dual_porderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_bPOrderType (T : bPOrderType disp) : Order.BPOrder.on T = Order.BPOrder.on T^d^d
:= erefl.
Let
eq_dual_dual_bPOrderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_tPOrderType (T : tPOrderType disp) : Order.TPOrder.on T = Order.TPOrder.on T^d^d
:= erefl.
Let
eq_dual_dual_tPOrderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_tbPOrderType (T : tbPOrderType disp) : Order.TBPOrder.on T = Order.TBPOrder.on T^d^d
:= erefl.
Let
eq_dual_dual_tbPOrderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_meetSemilatticeType (T : meetSemilatticeType disp) : Order.MeetSemilattice.on T = Order.MeetSemilattice.on T^d^d
:= erefl.
Let
eq_dual_dual_meetSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_bMeetSemilatticeType (T : bMeetSemilatticeType disp) : Order.BMeetSemilattice.on T = Order.BMeetSemilattice.on T^d^d
:= erefl.
Let
eq_dual_dual_bMeetSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_tMeetSemilatticeType (T : tMeetSemilatticeType disp) : Order.TMeetSemilattice.on T = Order.TMeetSemilattice.on T^d^d
:= erefl.
Let
eq_dual_dual_tMeetSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_tbMeetSemilatticeType (T : tbMeetSemilatticeType disp) : Order.TBMeetSemilattice.on T = Order.TBMeetSemilattice.on T^d^d
:= erefl.
Let
eq_dual_dual_tbMeetSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_joinSemilatticeType (T : joinSemilatticeType disp) : Order.JoinSemilattice.on T = Order.JoinSemilattice.on T^d^d
:= erefl.
Let
eq_dual_dual_joinSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_bJoinSemilatticeType (T : bJoinSemilatticeType disp) : Order.BJoinSemilattice.on T = Order.BJoinSemilattice.on T^d^d
:= erefl.
Let
eq_dual_dual_bJoinSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_tJoinSemilatticeType (T : tJoinSemilatticeType disp) : Order.TJoinSemilattice.on T = Order.TJoinSemilattice.on T^d^d
:= erefl.
Let
eq_dual_dual_tJoinSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_tbJoinSemilatticeType (T : tbJoinSemilatticeType disp) : Order.TBJoinSemilattice.on T = Order.TBJoinSemilattice.on T^d^d
:= erefl.
Let
eq_dual_dual_tbJoinSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_latticeType (T : latticeType disp) : Order.Lattice.on T = Order.Lattice.on T^d^d
:= erefl.
Let
eq_dual_dual_latticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_bLatticeType (T : bLatticeType disp) : Order.BLattice.on T = Order.BLattice.on T^d^d
:= erefl.
Let
eq_dual_dual_bLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_tLatticeType (T : tLatticeType disp) : Order.TLattice.on T = Order.TLattice.on T^d^d
:= erefl.
Let
eq_dual_dual_tLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_tbLatticeType (T : tbLatticeType disp) : Order.TBLattice.on T = Order.TBLattice.on T^d^d
:= erefl.
Let
eq_dual_dual_tbLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_distrLatticeType (T : distrLatticeType disp) : Order.DistrLattice.on T = Order.DistrLattice.on T^d^d
:= erefl.
Let
eq_dual_dual_distrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_bDistrLatticeType (T : bDistrLatticeType disp) : Order.BDistrLattice.on T = Order.BDistrLattice.on T^d^d
:= erefl.
Let
eq_dual_dual_bDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_tDistrLatticeType (T : tDistrLatticeType disp) : Order.TDistrLattice.on T = Order.TDistrLattice.on T^d^d
:= erefl.
Let
eq_dual_dual_tDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_tbDistrLatticeType (T : tbDistrLatticeType disp) : Order.TBDistrLattice.on T = Order.TBDistrLattice.on T^d^d
:= erefl.
Let
eq_dual_dual_tbDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_cDistrLatticeType (T : cDistrLatticeType disp) : Order.CDistrLattice.on T = Order.CDistrLattice.on T^d^d
:= erefl.
Let
eq_dual_dual_cDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_cbDistrLatticeType (T : cbDistrLatticeType disp) : Order.CBDistrLattice.on T = Order.CBDistrLattice.on T^d^d
:= erefl.
Let
eq_dual_dual_cbDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_ctDistrLatticeType (T : ctDistrLatticeType disp) : Order.CTDistrLattice.on T = Order.CTDistrLattice.on T^d^d
:= erefl.
Let
eq_dual_dual_ctDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_ctbDistrLatticeType (T : ctbDistrLatticeType disp) : Order.CTBDistrLattice.on T = Order.CTBDistrLattice.on T^d^d
:= erefl.
Let
eq_dual_dual_ctbDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_orderType (T : orderType disp) : Order.Total.on T = Order.Total.on T^d^d
:= erefl.
Let
eq_dual_dual_orderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_bOrderType (T : bOrderType disp) : Order.BTotal.on T = Order.BTotal.on T^d^d
:= erefl.
Let
eq_dual_dual_bOrderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_tOrderType (T : tOrderType disp) : Order.TTotal.on T = Order.TTotal.on T^d^d
:= erefl.
Let
eq_dual_dual_tOrderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_tbOrderType (T : tbOrderType disp) : Order.TBTotal.on T = Order.TBTotal.on T^d^d
:= erefl.
Let
eq_dual_dual_tbOrderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_finPOrderType (T : finPOrderType disp) : Order.FinPOrder.on T = Order.FinPOrder.on T^d^d
:= erefl.
Let
eq_dual_dual_finPOrderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_finBPOrderType (T : finBPOrderType disp) : Order.FinBPOrder.on T = Order.FinBPOrder.on T^d^d
:= erefl.
Let
eq_dual_dual_finBPOrderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_finTPOrderType (T : finTPOrderType disp) : Order.FinTPOrder.on T = Order.FinTPOrder.on T^d^d
:= erefl.
Let
eq_dual_dual_finTPOrderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_finTBPOrderType (T : finTBPOrderType disp) : Order.FinTBPOrder.on T = Order.FinTBPOrder.on T^d^d
:= erefl.
Let
eq_dual_dual_finTBPOrderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_finMeetSemilatticeType (T : finMeetSemilatticeType disp) : Order.FinMeetSemilattice.on T = Order.FinMeetSemilattice.on T^d^d
:= erefl.
Let
eq_dual_dual_finMeetSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_finBMeetSemilatticeType (T : finBMeetSemilatticeType disp) : Order.FinBMeetSemilattice.on T = Order.FinBMeetSemilattice.on T^d^d
:= erefl.
Let
eq_dual_dual_finBMeetSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_finJoinSemilatticeType (T : finJoinSemilatticeType disp) : Order.FinJoinSemilattice.on T = Order.FinJoinSemilattice.on T^d^d
:= erefl.
Let
eq_dual_dual_finJoinSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_finTJoinSemilatticeType (T : finTJoinSemilatticeType disp) : Order.FinTJoinSemilattice.on T = Order.FinTJoinSemilattice.on T^d^d
:= erefl.
Let
eq_dual_dual_finTJoinSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_FinLatticeType (T : finLatticeType disp) : Order.FinLattice.on T = Order.FinLattice.on T^d^d
:= erefl.
Let
eq_dual_dual_FinLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_FinTBLatticeType (T : finTBLatticeType disp) : Order.FinTBLattice.on T = Order.FinTBLattice.on T^d^d
:= erefl.
Let
eq_dual_dual_FinTBLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_FinDistrLatticeType (T : finDistrLatticeType disp) : Order.FinDistrLattice.on T = Order.FinDistrLattice.on T^d^d
:= erefl.
Let
eq_dual_dual_FinDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_FinTBDistrLatticeType (T : finTBDistrLatticeType disp) : Order.FinTBDistrLattice.on T = Order.FinTBDistrLattice.on T^d^d
:= erefl.
Let
eq_dual_dual_FinTBDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_finCDistrLatticeType (T : finCDistrLatticeType disp) : Order.FinCDistrLattice.on T = Order.FinCDistrLattice.on T^d^d
:= erefl.
Let
eq_dual_dual_finCDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_finCTBDistrLatticeType (T : finCTBDistrLatticeType disp) : Order.FinCTBDistrLattice.on T = Order.FinCTBDistrLattice.on T^d^d
:= erefl.
Let
eq_dual_dual_finCTBDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_finOrderType (T : finOrderType disp) : Order.FinTotal.on T = Order.FinTotal.on T^d^d
:= erefl.
Let
eq_dual_dual_finOrderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_dual_finTBOrderType (T : finTBOrderType disp) : Order.FinTBTotal.on T = Order.FinTBTotal.on T^d^d
:= erefl.
Let
eq_dual_dual_finTBOrderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_porderType (T1 : porderType disp1) (T2 : porderType disp2) : Order.POrder.on (T1 * T2)^d = Order.POrder.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_porderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_bPreorderType (T1 : bPreorderType disp1) (T2 : bPreorderType disp2) : Order.BPreorder.on (T1 * T2)^d = Order.BPreorder.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_bPreorderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_tPreorderType (T1 : tPreorderType disp1) (T2 : tPreorderType disp2) : Order.TPreorder.on (T1 * T2)^d = Order.TPreorder.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_tPreorderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_tbPreorderType (T1 : tbPreorderType disp1) (T2 : tbPreorderType disp2) : Order.TBPreorder.on (T1 * T2)^d = Order.TBPreorder.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_tbPreorderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_bPOrderType (T1 : bPOrderType disp1) (T2 : bPOrderType disp2) : Order.BPOrder.on (T1 * T2)^d = Order.BPOrder.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_bPOrderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_tPOrderType (T1 : tPOrderType disp1) (T2 : tPOrderType disp2) : Order.TPOrder.on (T1 * T2)^d = Order.TPOrder.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_tPOrderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_tbPOrderType (T1 : tbPOrderType disp1) (T2 : tbPOrderType disp2) : Order.TBPOrder.on (T1 * T2)^d = Order.TBPOrder.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_tbPOrderType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_meetSemilatticeType (T1 : meetSemilatticeType disp1) (T2 : meetSemilatticeType disp2) : Order.MeetSemilattice.on (T1 * T2)^d = Order.MeetSemilattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_meetSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_bMeetSemilatticeType (T1 : bMeetSemilatticeType disp1) (T2 : bMeetSemilatticeType disp2) : Order.BMeetSemilattice.on (T1 * T2)^d = Order.BMeetSemilattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_bMeetSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_tMeetSemilatticeType (T1 : tMeetSemilatticeType disp1) (T2 : tMeetSemilatticeType disp2) : Order.TMeetSemilattice.on (T1 * T2)^d = Order.TMeetSemilattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_tMeetSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_tbMeetSemilatticeType (T1 : tbMeetSemilatticeType disp1) (T2 : tbMeetSemilatticeType disp2) : Order.TBMeetSemilattice.on (T1 * T2)^d = Order.TBMeetSemilattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_tbMeetSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_joinSemilatticeType (T1 : joinSemilatticeType disp1) (T2 : joinSemilatticeType disp2) : Order.JoinSemilattice.on (T1 * T2)^d = Order.JoinSemilattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_joinSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_bJoinSemilatticeType (T1 : bJoinSemilatticeType disp1) (T2 : bJoinSemilatticeType disp2) : Order.BJoinSemilattice.on (T1 * T2)^d = Order.BJoinSemilattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_bJoinSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_tJoinSemilatticeType (T1 : tJoinSemilatticeType disp1) (T2 : tJoinSemilatticeType disp2) : Order.TJoinSemilattice.on (T1 * T2)^d = Order.TJoinSemilattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_tJoinSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_tbJoinSemilatticeType (T1 : tbJoinSemilatticeType disp1) (T2 : tbJoinSemilatticeType disp2) : Order.TBJoinSemilattice.on (T1 * T2)^d = Order.TBJoinSemilattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_tbJoinSemilatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_latticeType (T1 : latticeType disp1) (T2 : latticeType disp2) : Order.Lattice.on (T1 * T2)^d = Order.Lattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_latticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_bLatticeType (T1 : bLatticeType disp1) (T2 : bLatticeType disp2) : Order.BLattice.on (T1 * T2)^d = Order.BLattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_bLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_tLatticeType (T1 : tLatticeType disp1) (T2 : tLatticeType disp2) : Order.TLattice.on (T1 * T2)^d = Order.TLattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_tLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_tbLatticeType (T1 : tbLatticeType disp1) (T2 : tbLatticeType disp2) : Order.TBLattice.on (T1 * T2)^d = Order.TBLattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_tbLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_distrLatticeType (T1 : distrLatticeType disp1) (T2 : distrLatticeType disp2) : Order.DistrLattice.on (T1 * T2)^d = Order.DistrLattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_distrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_bDistrLatticeType (T1 : bDistrLatticeType disp1) (T2 : bDistrLatticeType disp2) : Order.BDistrLattice.on (T1 * T2)^d = Order.BDistrLattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_bDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_tDistrLatticeType (T1 : tDistrLatticeType disp1) (T2 : tDistrLatticeType disp2) : Order.TDistrLattice.on (T1 * T2)^d = Order.TDistrLattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_tDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_tbDistrLatticeType (T1 : tbDistrLatticeType disp1) (T2 : tbDistrLatticeType disp2) : Order.TBDistrLattice.on (T1 * T2)^d = Order.TBDistrLattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_tbDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_cDistrLatticeType (T1 : cDistrLatticeType disp1) (T2 : cDistrLatticeType disp2) : Order.CDistrLattice.on (T1 * T2)^d = Order.CDistrLattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_cDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_cbDistrLatticeType (T1 : cbDistrLatticeType disp1) (T2 : cbDistrLatticeType disp2) : Order.CBDistrLattice.on (T1 * T2)^d = Order.CBDistrLattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_cbDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_ctDistrLatticeType (T1 : ctDistrLatticeType disp1) (T2 : ctDistrLatticeType disp2) : Order.CTDistrLattice.on (T1 * T2)^d = Order.CTDistrLattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_ctDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_dual_prod_ctbDistrLatticeType (T1 : ctbDistrLatticeType disp1) (T2 : ctbDistrLatticeType disp2) : Order.CTBDistrLattice.on (T1 * T2)^d = Order.CTBDistrLattice.on (T1^d * T2^d)%type
:= erefl.
Let
eq_dual_prod_ctbDistrLatticeType
test_suite
test_suite/test_order_conv.v
[ "mathcomp", "boot", "order", "Order.Theory", "DefaultProdOrder" ]
[ "on", "type" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_vars : q * w * e * r * t * y * u * i * o * p * a * s * d * f * g * h * j * k * l = l * w * e * r * t * y * u * i * o * p * a * s * d * f * g * h * j * k * q.
Proof. ring. Qed.
Lemma
test_vars
test_suite
test_suite/test_ring.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "ring_tactic", "GRing.Theory" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
f1
:= x1^3*x2 - x1*x2^3 - x1^3*x3 + x2^3*x3 + x1*x3^3 - x2*x3^3 - x2*y1^ 2 + x3*y1^2 + x1*y2^2 - x3*y2^2 - x1*y3^2 + x2*y3^2.
Definition
f1
test_suite
test_suite/test_ring_from_sander.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "ring_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
f2
:= 2*x1^6*x2^3 - 6*x1^4*x2^5 + 6*x1^2*x2^7 - 2*x2^9 - 6*x1^6*x2^ 2*x3 + 6*x1^5*x2^3*x3 + 12*x1^4*x2^4*x3 - 12*x1^3*x2^5*x3 - 6*x1^2*x2^6*x3 + 6*x1*x2^7*x3 + 6*x1^6*x2*x3^2 - 18*x1^5*x2^2*x3^2 + 6*x1^4*x2^3*x3^2 + 24*x1^3*x2^4*x3^2 - 18*x1^2*x2^5*x3^2 - 6*x1*x2^6*x3^2 + 6*x2^7*x3^2 - 2*x1^6*x3^3 + 18*x1^5*x2...
Definition
f2
test_suite
test_suite/test_ring_from_sander.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "ring_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
f3
:= 2*x1^9*x2^4 - 8*x1^7*x2^6 + 12*x1^5*x2^8 - 8*x1^3*x2^10 + 2*x1*x2^12 - 8*x1^9*x2^3*x3 + 6*x1^ 8*x2^4*x3 + 24*x1^7*x2^5*x3 - 16*x1^6*x2^6*x3 - 24*x1^5*x2^7*x3 + 12*x1^4*x2^ 8*x3 + 8*x1^3*x2^9*x3 - 2*x2^12*x3 + 12*x1^9*x2^2*x3^2 - 24*x1^ 8*x2^3*x3^2 - 12*x1^7*x2^4*x3^2 + 48*x1^6*x2^5*x3^2 - 12*x1^5*x2^6*x3^2 - 24*...
Definition
f3
test_suite
test_suite/test_ring_from_sander.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "ring_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
from_sander_int (x1 x2 x3 y1 y2 y3 : int) : f1 x1 x2 x3 y1 y2 y3 * f2 x1 x2 x3 y1 y2 y3 = f3 x1 x2 x3 y1 y2 y3.
Proof. rewrite /f1 /f2 /f3. Time ring. (* 6.881 secs *) Time Qed.
Lemma
from_sander_int
test_suite
test_suite/test_ring_from_sander.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "ring_tactic" ]
[ "f1", "f2", "f3", "int" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
from_sander_rat (x1 x2 x3 y1 y2 y3 : rat) : f1 x1 x2 x3 y1 y2 y3 * f2 x1 x2 x3 y1 y2 y3 = f3 x1 x2 x3 y1 y2 y3.
Proof. rewrite /f1 /f2 /f3. Time ring. (* 6.805 secs *) Time Qed.
Lemma
from_sander_rat
test_suite
test_suite/test_ring_from_sander.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "ring_tactic" ]
[ "f1", "f2", "f3", "rat" ]
0.95 secs
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d