Exact expanded PA statement
exists bqb_le_gap_hj32_scaled_budget_root_35. bqb_le_gap_hj32_scaled_budget_root_35 + (6 * (13 * 14 + 6)) = (35 * 35)Structural proof guide
The factorized RFC-v1 H budget at root 35 lies below its square.
Direct prerequisites: linear_square_budget, mul_add, add_mul, add_assoc. The authored body proceeds by intermediate claims (15), equality transport (15), closed numeral normalization (9).
Proof neighborhood
Direct dependencies
Direct dependents
Formal native tactic body
Dependencies are hypotheses of this body receipt. The focused endpoint audits separately check the complete empty-context certificates.
- 0001
specialize linear_square_budget 6 - 0002
specialize linear_square_budget 5 - 0003
specialize linear_square_budget 35 - 0004
specialize linear_square_budget 5 - 0005
specialize linear_square_budget 13 - 0006
specialize linear_square_budget (13 * 14 + 6) - 0007
specialize linear_square_budget (2 * 35 + 27) - 0008
apply linear_square_budget - 0009
norm_num - 0010
have hk_split : 13 * 14 = 5 * 14 + 8 * 14 - 0011
have hk_thirteen : 13 = 5 + 8 - 0012
norm_num - 0013
rewrite hk_thirteen - 0014
specialize add_mul 5 - 0015
specialize add_mul 8 - 0016
specialize add_mul 14 - 0017
apply add_mul - 0018
rewrite hk_split - 0019
have hk_bridge : 8 * 14 = 5 * 20 + 12 - 0020
norm_num - 0021
rewrite hk_bridge - 0022
have hk_assoc_one : 5 * 14 + (5 * 20 + 12) = (5 * 14 + 5 * 20) + 12 - 0023
symm - 0024
specialize add_assoc (5 * 14) - 0025
specialize add_assoc (5 * 20) - 0026
specialize add_assoc 12 - 0027
apply add_assoc - 0028
rewrite hk_assoc_one - 0029
have hk_factor : 5 * (14 + 20) = 5 * 14 + 5 * 20 - 0030
specialize mul_add 5 - 0031
specialize mul_add 14 - 0032
specialize mul_add 20 - 0033
apply mul_add - 0034
rewrite <- hk_factor - 0035
have hk_thirty_four : 14 + 20 = 34 - 0036
norm_num - 0037
rewrite hk_thirty_four - 0038
have hk_assoc_two : (5 * 34 + 12) + 6 = 5 * 34 + (12 + 6) - 0039
specialize add_assoc (5 * 34) - 0040
specialize add_assoc 12 - 0041
specialize add_assoc 6 - 0042
apply add_assoc - 0043
rewrite hk_assoc_two - 0044
have hk_remainder : 12 + 6 = 5 + 13 - 0045
norm_num - 0046
rewrite hk_remainder - 0047
have hk_assoc_three : 5 * 34 + (5 + 13) = (5 * 34 + 5) + 13 - 0048
symm - 0049
specialize add_assoc (5 * 34) - 0050
specialize add_assoc 5 - 0051
specialize add_assoc 13 - 0052
apply add_assoc - 0053
rewrite hk_assoc_three - 0054
have hk_step : 5 * 35 = 5 * 34 + 5 - 0055
have hk_thirty_five : 35 = 34 + 1 - 0056
norm_num - 0057
rewrite hk_thirty_five - 0058
trans 5 * 34 + 5 * 1 - 0059
specialize mul_add 5 - 0060
specialize mul_add 34 - 0061
specialize mul_add 1 - 0062
apply mul_add - 0063
congr - 0064
refl - 0065
norm_num - 0066
rewrite <- hk_step - 0067
refl - 0068
have hd_assoc : (2 * 35 + 27) + 6 * 13 = 2 * 35 + (27 + 6 * 13) - 0069
specialize add_assoc (2 * 35) - 0070
specialize add_assoc 27 - 0071
specialize add_assoc (6 * 13) - 0072
apply add_assoc - 0073
rewrite hd_assoc - 0074
have hd_bridge : 27 + 6 * 13 = 3 * 35 - 0075
norm_num - 0076
rewrite hd_bridge - 0077
have hd_factor : (2 + 3) * 35 = 2 * 35 + 3 * 35 - 0078
specialize add_mul 2 - 0079
specialize add_mul 3 - 0080
specialize add_mul 35 - 0081
apply add_mul - 0082
rewrite <- hd_factor - 0083
have hd_five : 2 + 3 = 5 - 0084
norm_num - 0085
rewrite hd_five - 0086
refl