Original question and givens
Use the complete prime field Z_5, with prime p=5, residue labels 0 through p−1, and addition/multiplication modulo p. Nonzero inputs alone may be inverted; division by zero is never allowed. This prime-field family does not assert that every finite field has prime order or that every finite ring is a field. element=2, possibly zero. Give (element,p,power,equal?,Frobenius_on_prime_field), with power=element^p modulo p.
G001 — Use the complete prime field Z_5, with prime p=5, residue labels 0 through p−1, and addition/multiplication modulo p. Nonzero inputs alone may be inverted; division by zero is never allowed. This prime-field family does not assert that every finite field has prime order or that every finite ring is a field. element=2, possibly zero. Give (element,p,power,equal?,Frobenius_on_prime_field), with power=element^p modulo p.
Step-by-step derivation
S001 · implies
Before
source roles = [qf-mod31-fielddeep-frobenius, [domain, element, operation, p]]
After
derived = [fielddeep-frobenius, Exact_prime_field_Zp]
Conditions: none
THIS source uses LOCAL-hyphen operations with exact keys/domain.Keep source field order and numeric/Boolean/string roles;integer rational texts omit/1.Original questions,English,MKOs,ASTs and statuses remain unchanged.
Step identifiers and dependencies
Rule: R66_EXACT_source_bank_keys_local_operation_domain · Uses: G001
S002 · implies
Before
source roles = [5, [2]]
After
derived = [[1], Yes]
Conditions: none
Trial EVERY divisor2 through floor(sqrt(p));a composite would have a factor there.The empty test for p=2 is valid.This qualifies THIS prime field Z_p,not every finite field’s order or every finite ring as a field.
Step identifiers and dependencies
Rule: Field_PRIME_complete_trial_divisor_qualification · Uses: G001, S001
S003 · calculation
Before
Field ORIGINAL previous power times element k=1 := mul(1, 2)
After
Field ORIGINAL previous power times element k=1 = 2
Conditions: none
Calculate exactly from THIS step’s ORIGINAL ordered operands.Retain the SOURCE rational pre-reduction envelope separately;do not use floating values or silently widen a different bank.
Step identifiers and dependencies
Rule: exact_rational_arithmetic · Uses: G001, S002
S004 · implies
Before
source roles = [power exponent1, 2, 5]
After
derived = [0, 2]
Conditions: none
Use integer Euclidean division: value=n*quotient+remainder with0≤remainder<n.Normalize negative representatives too;do not use floating remainders.
Step identifiers and dependencies
Rule: Finite_MOD_euclidean_quotient_remainder · Uses: G001, S003
S005 · calculation
Before
Field ORIGINAL previous power times element k=2 := mul(2, 2)
After
Field ORIGINAL previous power times element k=2 = 4
Conditions: none
Calculate exactly from THIS step’s ORIGINAL ordered operands.Retain the SOURCE rational pre-reduction envelope separately;do not use floating values or silently widen a different bank.
Step identifiers and dependencies
Rule: exact_rational_arithmetic · Uses: G001, S004
S006 · implies
Before
source roles = [power exponent2, 4, 5]
After
derived = [0, 4]
Conditions: none
Use integer Euclidean division: value=n*quotient+remainder with0≤remainder<n.Normalize negative representatives too;do not use floating remainders.
Step identifiers and dependencies
Rule: Finite_MOD_euclidean_quotient_remainder · Uses: G001, S005
S007 · calculation
Before
Field ORIGINAL previous power times element k=3 := mul(4, 2)
After
Field ORIGINAL previous power times element k=3 = 8
Conditions: none
Calculate exactly from THIS step’s ORIGINAL ordered operands.Retain the SOURCE rational pre-reduction envelope separately;do not use floating values or silently widen a different bank.
Step identifiers and dependencies
Rule: exact_rational_arithmetic · Uses: G001, S006
S008 · implies
Before
source roles = [power exponent3, 8, 5]
After
derived = [1, 3]
Conditions: none
Use integer Euclidean division: value=n*quotient+remainder with0≤remainder<n.Normalize negative representatives too;do not use floating remainders.
Step identifiers and dependencies
Rule: Finite_MOD_euclidean_quotient_remainder · Uses: G001, S007
S009 · calculation
Before
Field ORIGINAL previous power times element k=4 := mul(3, 2)
After
Field ORIGINAL previous power times element k=4 = 6
Conditions: none
Calculate exactly from THIS step’s ORIGINAL ordered operands.Retain the SOURCE rational pre-reduction envelope separately;do not use floating values or silently widen a different bank.
Step identifiers and dependencies
Rule: exact_rational_arithmetic · Uses: G001, S008
S010 · implies
Before
source roles = [power exponent4, 6, 5]
After
derived = [1, 1]
Conditions: none
Use integer Euclidean division: value=n*quotient+remainder with0≤remainder<n.Normalize negative representatives too;do not use floating remainders.
Step identifiers and dependencies
Rule: Finite_MOD_euclidean_quotient_remainder · Uses: G001, S009
S011 · calculation
Before
Field ORIGINAL previous power times element k=5 := mul(1, 2)
After
Field ORIGINAL previous power times element k=5 = 2
Conditions: none
Calculate exactly from THIS step’s ORIGINAL ordered operands.Retain the SOURCE rational pre-reduction envelope separately;do not use floating values or silently widen a different bank.
Step identifiers and dependencies
Rule: exact_rational_arithmetic · Uses: G001, S010
S012 · implies
Before
source roles = [power exponent5, 2, 5]
After
derived = [0, 2]
Conditions: none
Use integer Euclidean division: value=n*quotient+remainder with0≤remainder<n.Normalize negative representatives too;do not use floating remainders.
Step identifiers and dependencies
Rule: Finite_MOD_euclidean_quotient_remainder · Uses: G001, S011
S013 · implies
Before
source roles = [5, 2, [2, 4, 3, 1, 2]]
After
derived = [2, Yes]
Conditions: none
Repeated multiplication checks element^p=element in THIS prime field,including zero.Frobenius need not fix every element of an arbitrary extension field;do not widen the conclusion.
Step identifiers and dependencies
Rule: Field_FROBENIUS_prime_field_INCLUDES_zero · Uses: G001, S012