Original question and givens
Use the explicitly declared Bernoulli product-law model with exact p=25/29 in [0,1]. Infinite IID requires the complete identical Bernoulli marginal and mutual independence for every finite subfamily, represented here by the symbolic product-law cylinder certificate. Equal means, pairwise independence or checking one finite prefix is insufficient. Use exact reduced fractions with positive denominators, omitting /1 for integers. No law of large numbers, central limit theorem or additional Markov conclusion is asserted. Ordered binary word=[0, 0, 0, 1]. Give (word,atom_factors,product,pass?).
G001 — Use the explicitly declared Bernoulli product-law model with exact p=25/29 in [0,1]. Infinite IID requires the complete identical Bernoulli marginal and mutual independence for every finite subfamily, represented here by the symbolic product-law cylinder certificate. Equal means, pairwise independence or checking one finite prefix is insufficient. Use exact reduced fractions with positive denominators, omitting /1 for integers. No law of large numbers, central limit theorem or additional Markov conclusion is asserted. Ordered binary word=[0, 0, 0, 1]. Give (word,atom_factors,product,pass?).
Step-by-step derivation
S001 · calculation
Before
Bernoulli zero-outcome mass := sub(1, 25/29)
After
Bernoulli zero-outcome mass = 4/29
Conditions: none
Compute exactly from original roles,complete pairings and established intermediates,retaining denominators,signs and zeros.
Step identifiers and dependencies
Rule: exact_rational_arithmetic · Uses: G001
S002 · implies
Before
raw Bernoulli parameter=[25, 29]
After
normalized p=25/29;mass at0=4/29;mass at1=25/29;symbolic product-law model explicitly declared
Conditions: none
Retain the complete{0,1} marginal and the explicitly declared product-law premise.Infinite IID is not inferred from a data set,equal means or pairwise checks.
Step identifiers and dependencies
Rule: Bernoulli_complete_marginal_and_product_law_premise · Uses: G001, S001
S003 · implies
Before
original ordered finite binary word=[0, 0, 0, 1];p=25/29;one-minus-p=4/29
After
cylinder atom factorization uses the same declared symbolic product law
Conditions: none
Preserve word order,use p for1 and1−p for0.Factorization is a model premise,not a test proving independence of an unknown dependent law.Retain empty words and p=0 or1 boundaries.
Step identifiers and dependencies
Rule: IID_ordered_word_and_given_model_not_unknown_law_test · Uses: G001, S002
S004 · implies
Before
word position=0;original bit=0
After
aligned atom factor=4/29
Conditions: none
Choose the correct marginal factor at every original position,retaining zero factors without any conditional-probability division.
Step identifiers and dependencies
Rule: IID_each_original_bit_factor · Uses: G001, S003
S005 · calculation
Before
ordered factor prefix product0 := mul(1, 4/29)
After
ordered factor prefix product0 = 4/29
Conditions: none
Compute exactly from original roles,complete pairings and established intermediates,retaining denominators,signs and zeros.
Step identifiers and dependencies
Rule: exact_rational_arithmetic · Uses: G001, S004
S006 · implies
Before
word position=1;original bit=0
After
aligned atom factor=4/29
Conditions: none
Choose the correct marginal factor at every original position,retaining zero factors without any conditional-probability division.
Step identifiers and dependencies
Rule: IID_each_original_bit_factor · Uses: G001, S005
S007 · calculation
Before
ordered factor prefix product1 := mul(4/29, 4/29)
After
ordered factor prefix product1 = 16/841
Conditions: none
Compute exactly from original roles,complete pairings and established intermediates,retaining denominators,signs and zeros.
Step identifiers and dependencies
Rule: exact_rational_arithmetic · Uses: G001, S006
S008 · implies
Before
word position=2;original bit=0
After
aligned atom factor=4/29
Conditions: none
Choose the correct marginal factor at every original position,retaining zero factors without any conditional-probability division.
Step identifiers and dependencies
Rule: IID_each_original_bit_factor · Uses: G001, S007
S009 · calculation
Before
ordered factor prefix product2 := mul(16/841, 4/29)
After
ordered factor prefix product2 = 64/24389
Conditions: none
Compute exactly from original roles,complete pairings and established intermediates,retaining denominators,signs and zeros.
Step identifiers and dependencies
Rule: exact_rational_arithmetic · Uses: G001, S008
S010 · implies
Before
word position=3;original bit=1
After
aligned atom factor=25/29
Conditions: none
Choose the correct marginal factor at every original position,retaining zero factors without any conditional-probability division.
Step identifiers and dependencies
Rule: IID_each_original_bit_factor · Uses: G001, S009
S011 · calculation
Before
ordered factor prefix product3 := mul(64/24389, 25/29)
After
ordered factor prefix product3 = 1600/707281
Conditions: none
Compute exactly from original roles,complete pairings and established intermediates,retaining denominators,signs and zeros.
Step identifiers and dependencies
Rule: exact_rational_arithmetic · Uses: G001, S010
S012 · implies
Before
ordered atom factors=[4/29, 4/29, 4/29, 25/29]
After
finite product=1600/707281;model factorization check=Yes
Conditions: none
Multiply every factor in original order,starting an empty list at identity1.Pass checks this finite calculation within the declared product model;it does not extrapolate arbitrary infinite IID from finite samples.
Step identifiers and dependencies
Rule: IID_finite_factorization_scope_not_new_infinite_proof · Uses: G001, S011
Result
([0, 0, 0, 1], [4/29, 4/29, 4/29, 25/29], 1600/707281, Yes)
The full substitutions and premise checks give the original answer; source identity,format and status are unchanged.