Each relation below starts at this concept.
This is an authored directed relation from the source endpoint to the target endpoint.
- Relation ID
e_comm_affine- Relation type
- Representation / equivalence
representation-equivalence - Direction
- source → target
- Endpoint roles
- source: Representation / equivalence with; target: Representation / equivalence with
- Authored annotation
- Spec, contravariantly
Authored explanation
The functor Spec gives an anti-equivalence between commutative rings and affine schemes; morphisms reverse direction.
How to interpret this relation type
Reinterpret an object, pass to an equivalent presentation, or relate canonically corresponding structures; the carrier may change.
This is an authored directed relation from the source endpoint to the target endpoint.
- Relation ID
e_comm_artinian- Relation type
- Impose axiom
impose-axiom - Direction
- source → target
- Endpoint roles
- source: Builds toward; target: Built from
- Authored annotation
- + DCC on ideals
Authored explanation
Require descending chains of ideals to stabilize.
How to interpret this relation type
Keep the existing data and select the subclass satisfying an additional law, existence condition, finiteness condition, or other property.
This is an authored directed relation from the source endpoint to the target endpoint.
- Relation ID
e_commutative_ring_field- Relation type
- Impose axiom
impose-axiom - Direction
- source → target
- Endpoint roles
- source: Builds toward; target: Built from
- Authored annotation
- require nonzero inverses
Authored explanation
Require 1=0 and every nonzero element to be invertible; inverse elements are unique.
How to interpret this relation type
Keep the existing data and select the subclass satisfying an additional law, existence condition, finiteness condition, or other property.
This is an authored directed relation from the source endpoint to the target endpoint.
- Relation ID
algebra_commutative_ring_to_ideal- Relation type
- State / property description
state-description - Direction
- source → target
- Endpoint roles
- source: Has state / property description; target: State / property description of
- Authored annotation
- has absorbing additive subgroups
Authored explanation
Ideals of a commutative ring are additive subgroups closed under multiplication by arbitrary ring elements, providing the compatible equivalence data used in quotient rings.
How to interpret this relation type
The target represents a state, property, observable, or state-dependent description associated with the source system or theory.
This is an authored directed relation from the source endpoint to the target endpoint.
- Relation ID
comm_ring_to_integral_domain- Relation type
- Impose axiom
impose-axiom - Direction
- source → target
- Endpoint roles
- source: Builds toward; target: Built from
- Authored annotation
- exclude zero divisors
Authored explanation
Require 1=0 and require a product to vanish only when one factor vanishes.
How to interpret this relation type
Keep the existing data and select the subclass satisfying an additional law, existence condition, finiteness condition, or other property.
This is an authored directed relation from the source endpoint to the target endpoint.
- Relation ID
e_comm_local- Relation type
- Impose axiom
impose-axiom - Direction
- source → target
- Endpoint roles
- source: Builds toward; target: Built from
- Authored annotation
- + unique maximal ideal
Authored explanation
Require exactly one maximal ideal.
How to interpret this relation type
Keep the existing data and select the subclass satisfying an additional law, existence condition, finiteness condition, or other property.
This is an authored directed relation from the source endpoint to the target endpoint.
- Relation ID
e_comm_noetherian- Relation type
- Impose axiom
impose-axiom - Direction
- source → target
- Endpoint roles
- source: Builds toward; target: Built from
- Authored annotation
- + ACC on ideals
Authored explanation
Require every ideal to be finitely generated.
How to interpret this relation type
Keep the existing data and select the subclass satisfying an additional law, existence condition, finiteness condition, or other property.
This is an authored directed relation from the source endpoint to the target endpoint.
- Relation ID
story_commutative_ring_to_polynomial_ring_canonical_construction- Relation type
- Canonical construction
canonical-construction - Direction
- source → target
- Endpoint roles
- source: Canonically constructs; target: Canonically constructed from
- Authored annotation
- adjoin an indeterminate
Authored explanation
Form finite formal sums in a variable with coefficients in the ring.
How to interpret this relation type
Apply a standard functorial or canonical construction whose output is not merely a reduct of the input and is not generally an equivalent presentation of the same object.
This is an authored directed relation from the source endpoint to the target endpoint.
- Relation ID
story_commutative_ring_to_prime_spectrum_canonical_construction- Relation type
- Canonical construction
canonical-construction - Direction
- source → target
- Endpoint roles
- source: Canonically constructs; target: Canonically constructed from
- Authored annotation
- form Spec(R)
Authored explanation
Prime ideals with the Zariski topology and structure sheaf form the affine spectrum.
How to interpret this relation type
Apply a standard functorial or canonical construction whose output is not merely a reduct of the input and is not generally an equivalent presentation of the same object.
This is an authored directed relation from the source endpoint to the target endpoint.
- Relation ID
algebra_commutative_ring_to_quotient_ring- Relation type
- Quotient construction
quotient-construction - Direction
- source → target
- Endpoint roles
- source: Quotients to; target: Obtained as quotient of
- Authored annotation
- identify elements modulo an ideal
Authored explanation
For an ideal I◃R, the quotient identifies a,b∈R exactly when a−b∈I; the cosets a+I inherit well-defined ring operations.
How to interpret this relation type
Identify elements by a stated equivalence relation and equip the quotient with the induced structure. The edge detail must state the representatives and equivalence relation.
This is an authored directed relation from the source endpoint to the target endpoint.
- Relation ID
story_commutative_ring_to_ring_localization_canonical_construction- Relation type
- Canonical construction
canonical-construction - Direction
- source → target
- Endpoint roles
- source: Canonically constructs; target: Canonically constructed from
- Authored annotation
- invert a multiplicative subset
Authored explanation
Localization universally makes selected ring elements invertible.
How to interpret this relation type
Apply a standard functorial or canonical construction whose output is not merely a reduct of the input and is not generally an equivalent presentation of the same object.