import { Struct, ObjectSize, ListCtor, Orphan, List, Data, Pointer } from 'capnp-es'; declare const _capnpFileId: bigint; /** * Information about one of the node's parameters. * */ declare class Node_Parameter extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; get name(): string; set name(value: string); toString(): string; } declare class Node_NestedNode extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; /** * Unqualified symbol name. Unlike Node.displayName, this *can* be used programmatically. * * (On Zooko's triangle, this is the node's petname according to its parent scope.) * */ get name(): string; set name(value: string); /** * ID of the nested node. Typically, the target node's scopeId points back to this node, but * robust code should avoid relying on this. * */ get id(): bigint; set id(value: bigint); toString(): string; } declare class Node_SourceInfo_Member extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; /** * Doc comment on the member. * */ get docComment(): string; set docComment(value: string); toString(): string; } /** * Additional information about a node which is not needed at runtime, but may be useful for * documentation or debugging purposes. This is kept in a separate struct to make sure it * doesn't accidentally get included in contexts where it is not needed. The * `CodeGeneratorRequest` includes this information in a separate array. * */ declare class Node_SourceInfo extends Struct { static readonly Member: typeof Node_SourceInfo_Member; static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; static _Members: ListCtor; /** * ID of the Node which this info describes. * */ get id(): bigint; set id(value: bigint); /** * The top-level doc comment for the Node. * */ get docComment(): string; set docComment(value: string); _adoptMembers(value: Orphan>): void; _disownMembers(): Orphan>; /** * Information about each member -- i.e. fields (for structs), enumerants (for enums), or * methods (for interfaces). * * This list is the same length and order as the corresponding list in the Node, i.e. * Node.struct.fields, Node.enum.enumerants, or Node.interface.methods. * */ get members(): List; _hasMembers(): boolean; _initMembers(length: number): List; set members(value: List); toString(): string; } declare class Node_Struct extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; static _Fields: ListCtor; /** * Size of the data section, in words. * */ get dataWordCount(): number; set dataWordCount(value: number); /** * Size of the pointer section, in pointers (which are one word each). * */ get pointerCount(): number; set pointerCount(value: number); /** * The preferred element size to use when encoding a list of this struct. If this is anything * other than `inlineComposite` then the struct is one word or less in size and is a candidate * for list packing optimization. * */ get preferredListEncoding(): ElementSize; set preferredListEncoding(value: ElementSize); /** * If true, then this "struct" node is actually not an independent node, but merely represents * some named union or group within a particular parent struct. This node's scopeId refers * to the parent struct, which may itself be a union/group in yet another struct. * * All group nodes share the same dataWordCount and pointerCount as the top-level * struct, and their fields live in the same ordinal and offset spaces as all other fields in * the struct. * * Note that a named union is considered a special kind of group -- in fact, a named union * is exactly equivalent to a group that contains nothing but an unnamed union. * */ get isGroup(): boolean; set isGroup(value: boolean); /** * Number of fields in this struct which are members of an anonymous union, and thus may * overlap. If this is non-zero, then a 16-bit discriminant is present indicating which * of the overlapping fields is active. This can never be 1 -- if it is non-zero, it must be * two or more. * * Note that the fields of an unnamed union are considered fields of the scope containing the * union -- an unnamed union is not its own group. So, a top-level struct may contain a * non-zero discriminant count. Named unions, on the other hand, are equivalent to groups * containing unnamed unions. So, a named union has its own independent schema node, with * `isGroup` = true. * */ get discriminantCount(): number; set discriminantCount(value: number); /** * If `discriminantCount` is non-zero, this is the offset of the union discriminant, in * multiples of 16 bits. * */ get discriminantOffset(): number; set discriminantOffset(value: number); _adoptFields(value: Orphan>): void; _disownFields(): Orphan>; /** * Fields defined within this scope (either the struct's top-level fields, or the fields of * a particular group; see `isGroup`). * * The fields are sorted by ordinal number, but note that because groups share the same * ordinal space, the field's index in this list is not necessarily exactly its ordinal. * On the other hand, the field's position in this list does remain the same even as the * protocol evolves, since it is not possible to insert or remove an earlier ordinal. * Therefore, for most use cases, if you want to identify a field by number, it may make the * most sense to use the field's index in this list rather than its ordinal. * */ get fields(): List; _hasFields(): boolean; _initFields(length: number): List; set fields(value: List); toString(): string; } declare class Node_Enum extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; static _Enumerants: ListCtor; _adoptEnumerants(value: Orphan>): void; _disownEnumerants(): Orphan>; /** * Enumerants ordered by numeric value (ordinal). * */ get enumerants(): List; _hasEnumerants(): boolean; _initEnumerants(length: number): List; set enumerants(value: List); toString(): string; } declare class Node_Interface extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; static _Methods: ListCtor; static _Superclasses: ListCtor; _adoptMethods(value: Orphan>): void; _disownMethods(): Orphan>; /** * Methods ordered by ordinal. * */ get methods(): List; _hasMethods(): boolean; _initMethods(length: number): List; set methods(value: List); _adoptSuperclasses(value: Orphan>): void; _disownSuperclasses(): Orphan>; /** * Superclasses of this interface. * */ get superclasses(): List; _hasSuperclasses(): boolean; _initSuperclasses(length: number): List; set superclasses(value: List); toString(): string; } declare class Node_Const extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; _adoptType(value: Orphan): void; _disownType(): Orphan; get type(): Type; _hasType(): boolean; _initType(): Type; set type(value: Type); _adoptValue(value: Orphan): void; _disownValue(): Orphan; get value(): Value; _hasValue(): boolean; _initValue(): Value; set value(value: Value); toString(): string; } declare class Node_Annotation extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; _adoptType(value: Orphan): void; _disownType(): Orphan; get type(): Type; _hasType(): boolean; _initType(): Type; set type(value: Type); get targetsFile(): boolean; set targetsFile(value: boolean); get targetsConst(): boolean; set targetsConst(value: boolean); get targetsEnum(): boolean; set targetsEnum(value: boolean); get targetsEnumerant(): boolean; set targetsEnumerant(value: boolean); get targetsStruct(): boolean; set targetsStruct(value: boolean); get targetsField(): boolean; set targetsField(value: boolean); get targetsUnion(): boolean; set targetsUnion(value: boolean); get targetsGroup(): boolean; set targetsGroup(value: boolean); get targetsInterface(): boolean; set targetsInterface(value: boolean); get targetsMethod(): boolean; set targetsMethod(value: boolean); get targetsParam(): boolean; set targetsParam(value: boolean); get targetsAnnotation(): boolean; set targetsAnnotation(value: boolean); toString(): string; } declare const Node_Which: { readonly FILE: 0; /** * Name to present to humans to identify this Node. You should not attempt to parse this. Its * format could change. It is not guaranteed to be unique. * * (On Zooko's triangle, this is the node's nickname.) * */ readonly STRUCT: 1; /** * If you want a shorter version of `displayName` (just naming this node, without its surrounding * scope), chop off this many characters from the beginning of `displayName`. * */ readonly ENUM: 2; /** * ID of the lexical parent node. Typically, the scope node will have a NestedNode pointing back * at this node, but robust code should avoid relying on this (and, in fact, group nodes are not * listed in the outer struct's nestedNodes, since they are listed in the fields). `scopeId` is * zero if the node has no parent, which is normally only the case with files, but should be * allowed for any kind of node (in order to make runtime type generation easier). * */ readonly INTERFACE: 3; /** * List of nodes nested within this node, along with the names under which they were declared. * */ readonly CONST: 4; /** * Annotations applied to this node. * */ readonly ANNOTATION: 5; }; type Node_Which = (typeof Node_Which)[keyof typeof Node_Which]; declare class Node extends Struct { static readonly FILE: 0; static readonly STRUCT: 1; static readonly ENUM: 2; static readonly INTERFACE: 3; static readonly CONST: 4; static readonly ANNOTATION: 5; static readonly Parameter: typeof Node_Parameter; static readonly NestedNode: typeof Node_NestedNode; static readonly SourceInfo: typeof Node_SourceInfo; static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; static _Parameters: ListCtor; static _NestedNodes: ListCtor; static _Annotations: ListCtor; get id(): bigint; set id(value: bigint); /** * Name to present to humans to identify this Node. You should not attempt to parse this. Its * format could change. It is not guaranteed to be unique. * * (On Zooko's triangle, this is the node's nickname.) * */ get displayName(): string; set displayName(value: string); /** * If you want a shorter version of `displayName` (just naming this node, without its surrounding * scope), chop off this many characters from the beginning of `displayName`. * */ get displayNamePrefixLength(): number; set displayNamePrefixLength(value: number); /** * ID of the lexical parent node. Typically, the scope node will have a NestedNode pointing back * at this node, but robust code should avoid relying on this (and, in fact, group nodes are not * listed in the outer struct's nestedNodes, since they are listed in the fields). `scopeId` is * zero if the node has no parent, which is normally only the case with files, but should be * allowed for any kind of node (in order to make runtime type generation easier). * */ get scopeId(): bigint; set scopeId(value: bigint); _adoptParameters(value: Orphan>): void; _disownParameters(): Orphan>; /** * If this node is parameterized (generic), the list of parameters. Empty for non-generic types. * */ get parameters(): List; _hasParameters(): boolean; _initParameters(length: number): List; set parameters(value: List); /** * True if this node is generic, meaning that it or one of its parent scopes has a non-empty * `parameters`. * */ get isGeneric(): boolean; set isGeneric(value: boolean); _adoptNestedNodes(value: Orphan>): void; _disownNestedNodes(): Orphan>; /** * List of nodes nested within this node, along with the names under which they were declared. * */ get nestedNodes(): List; _hasNestedNodes(): boolean; _initNestedNodes(length: number): List; set nestedNodes(value: List); _adoptAnnotations(value: Orphan>): void; _disownAnnotations(): Orphan>; /** * Annotations applied to this node. * */ get annotations(): List; _hasAnnotations(): boolean; _initAnnotations(length: number): List; set annotations(value: List); get _isFile(): boolean; set file(_: true); get struct(): Node_Struct; _initStruct(): Node_Struct; get _isStruct(): boolean; set struct(_: true); get enum(): Node_Enum; _initEnum(): Node_Enum; get _isEnum(): boolean; set enum(_: true); get interface(): Node_Interface; _initInterface(): Node_Interface; get _isInterface(): boolean; set interface(_: true); get const(): Node_Const; _initConst(): Node_Const; get _isConst(): boolean; set const(_: true); get annotation(): Node_Annotation; _initAnnotation(): Node_Annotation; get _isAnnotation(): boolean; set annotation(_: true); toString(): string; which(): Node_Which; } /** * A regular, non-group, non-fixed-list field. * */ declare class Field_Slot extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; /** * Offset, in units of the field's size, from the beginning of the section in which the field * resides. E.g. for a UInt32 field, multiply this by 4 to get the byte offset from the * beginning of the data section. * */ get offset(): number; set offset(value: number); _adoptType(value: Orphan): void; _disownType(): Orphan; get type(): Type; _hasType(): boolean; _initType(): Type; set type(value: Type); _adoptDefaultValue(value: Orphan): void; _disownDefaultValue(): Orphan; get defaultValue(): Value; _hasDefaultValue(): boolean; _initDefaultValue(): Value; set defaultValue(value: Value); /** * Whether the default value was specified explicitly. Non-explicit default values are always * zero or empty values. Usually, whether the default value was explicit shouldn't matter. * The main use case for this flag is for structs representing method parameters: * explicitly-defaulted parameters may be allowed to be omitted when calling the method. * */ get hadExplicitDefault(): boolean; set hadExplicitDefault(value: boolean); toString(): string; } /** * A group. * */ declare class Field_Group extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; /** * The ID of the group's node. * */ get typeId(): bigint; set typeId(value: bigint); toString(): string; } declare const Field_Ordinal_Which: { readonly IMPLICIT: 0; /** * The original ordinal number given to the field. You probably should NOT use this; if you need * a numeric identifier for a field, use its position within the field array for its scope. * The ordinal is given here mainly just so that the original schema text can be reproduced given * the compiled version -- i.e. so that `capnp compile -ocapnp` can do its job. * */ readonly EXPLICIT: 1; }; type Field_Ordinal_Which = (typeof Field_Ordinal_Which)[keyof typeof Field_Ordinal_Which]; declare class Field_Ordinal extends Struct { static readonly IMPLICIT: 0; static readonly EXPLICIT: 1; static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; get _isImplicit(): boolean; set implicit(_: true); /** * The original ordinal number given to the field. You probably should NOT use this; if you need * a numeric identifier for a field, use its position within the field array for its scope. * The ordinal is given here mainly just so that the original schema text can be reproduced given * the compiled version -- i.e. so that `capnp compile -ocapnp` can do its job. * */ get explicit(): number; get _isExplicit(): boolean; set explicit(value: number); toString(): string; which(): Field_Ordinal_Which; } declare const Field_Which: { readonly SLOT: 0; /** * Indicates where this member appeared in the code, relative to other members. * Code ordering may have semantic relevance -- programmers tend to place related fields * together. So, using code ordering makes sense in human-readable formats where ordering is * otherwise irrelevant, like JSON. The values of codeOrder are tightly-packed, so the maximum * value is count(members) - 1. Fields that are members of a union are only ordered relative to * the other members of that union, so the maximum value there is count(union.members). * */ readonly GROUP: 1; }; type Field_Which = (typeof Field_Which)[keyof typeof Field_Which]; /** * Schema for a field of a struct. * */ declare class Field extends Struct { static readonly NO_DISCRIMINANT = 65535; static readonly SLOT: 0; static readonly GROUP: 1; static readonly _capnp: { displayName: string; id: string; size: ObjectSize; defaultDiscriminantValue: DataView; }; static _Annotations: ListCtor; get name(): string; set name(value: string); /** * Indicates where this member appeared in the code, relative to other members. * Code ordering may have semantic relevance -- programmers tend to place related fields * together. So, using code ordering makes sense in human-readable formats where ordering is * otherwise irrelevant, like JSON. The values of codeOrder are tightly-packed, so the maximum * value is count(members) - 1. Fields that are members of a union are only ordered relative to * the other members of that union, so the maximum value there is count(union.members). * */ get codeOrder(): number; set codeOrder(value: number); _adoptAnnotations(value: Orphan>): void; _disownAnnotations(): Orphan>; get annotations(): List; _hasAnnotations(): boolean; _initAnnotations(length: number): List; set annotations(value: List); /** * If the field is in a union, this is the value which the union's discriminant should take when * the field is active. If the field is not in a union, this is 0xffff. * */ get discriminantValue(): number; set discriminantValue(value: number); /** * A regular, non-group, non-fixed-list field. * */ get slot(): Field_Slot; _initSlot(): Field_Slot; get _isSlot(): boolean; set slot(_: true); /** * A group. * */ get group(): Field_Group; _initGroup(): Field_Group; get _isGroup(): boolean; set group(_: true); get ordinal(): Field_Ordinal; _initOrdinal(): Field_Ordinal; toString(): string; which(): Field_Which; } /** * Schema for member of an enum. * */ declare class Enumerant extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; static _Annotations: ListCtor; get name(): string; set name(value: string); /** * Specifies order in which the enumerants were declared in the code. * Like utils.Field.codeOrder. * */ get codeOrder(): number; set codeOrder(value: number); _adoptAnnotations(value: Orphan>): void; _disownAnnotations(): Orphan>; get annotations(): List; _hasAnnotations(): boolean; _initAnnotations(length: number): List; set annotations(value: List); toString(): string; } declare class Superclass extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; get id(): bigint; set id(value: bigint); _adoptBrand(value: Orphan): void; _disownBrand(): Orphan; get brand(): Brand; _hasBrand(): boolean; _initBrand(): Brand; set brand(value: Brand); toString(): string; } /** * Schema for method of an interface. * */ declare class Method extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; static _ImplicitParameters: ListCtor; static _Annotations: ListCtor; get name(): string; set name(value: string); /** * Specifies order in which the methods were declared in the code. * Like utils.Field.codeOrder. * */ get codeOrder(): number; set codeOrder(value: number); _adoptImplicitParameters(value: Orphan>): void; _disownImplicitParameters(): Orphan>; /** * The parameters listed in [] (typically, type / generic parameters), whose bindings are intended * to be inferred rather than specified explicitly, although not all languages support this. * */ get implicitParameters(): List; _hasImplicitParameters(): boolean; _initImplicitParameters(length: number): List; set implicitParameters(value: List); /** * ID of the parameter struct type. If a named parameter list was specified in the method * declaration (rather than a single struct parameter type) then a corresponding struct type is * auto-generated. Such an auto-generated type will not be listed in the interface's * `nestedNodes` and its `scopeId` will be zero -- it is completely detached from the namespace. * (Awkwardly, it does of course inherit generic parameters from the method's scope, which makes * this a situation where you can't just climb the scope chain to find where a particular * generic parameter was introduced. Making the `scopeId` zero was a mistake.) * */ get paramStructType(): bigint; set paramStructType(value: bigint); _adoptParamBrand(value: Orphan): void; _disownParamBrand(): Orphan; /** * Brand of param struct type. * */ get paramBrand(): Brand; _hasParamBrand(): boolean; _initParamBrand(): Brand; set paramBrand(value: Brand); /** * ID of the return struct type; similar to `paramStructType`. * */ get resultStructType(): bigint; set resultStructType(value: bigint); _adoptResultBrand(value: Orphan): void; _disownResultBrand(): Orphan; /** * Brand of result struct type. * */ get resultBrand(): Brand; _hasResultBrand(): boolean; _initResultBrand(): Brand; set resultBrand(value: Brand); _adoptAnnotations(value: Orphan>): void; _disownAnnotations(): Orphan>; get annotations(): List; _hasAnnotations(): boolean; _initAnnotations(length: number): List; set annotations(value: List); toString(): string; } declare class Type_List extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; _adoptElementType(value: Orphan): void; _disownElementType(): Orphan; get elementType(): Type; _hasElementType(): boolean; _initElementType(): Type; set elementType(value: Type); toString(): string; } declare class Type_Enum extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; get typeId(): bigint; set typeId(value: bigint); _adoptBrand(value: Orphan): void; _disownBrand(): Orphan; get brand(): Brand; _hasBrand(): boolean; _initBrand(): Brand; set brand(value: Brand); toString(): string; } declare class Type_Struct extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; get typeId(): bigint; set typeId(value: bigint); _adoptBrand(value: Orphan): void; _disownBrand(): Orphan; get brand(): Brand; _hasBrand(): boolean; _initBrand(): Brand; set brand(value: Brand); toString(): string; } declare class Type_Interface extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; get typeId(): bigint; set typeId(value: bigint); _adoptBrand(value: Orphan): void; _disownBrand(): Orphan; get brand(): Brand; _hasBrand(): boolean; _initBrand(): Brand; set brand(value: Brand); toString(): string; } declare const Type_AnyPointer_Unconstrained_Which: { /** * truly AnyPointer * */ readonly ANY_KIND: 0; /** * AnyStruct * */ readonly STRUCT: 1; /** * AnyList * */ readonly LIST: 2; /** * Capability * */ readonly CAPABILITY: 3; }; type Type_AnyPointer_Unconstrained_Which = (typeof Type_AnyPointer_Unconstrained_Which)[keyof typeof Type_AnyPointer_Unconstrained_Which]; /** * A regular AnyPointer. * * The name "unconstrained" means as opposed to constraining it to match a type parameter. * In retrospect this name is probably a poor choice given that it may still be constrained * to be a struct, list, or capability. * */ declare class Type_AnyPointer_Unconstrained extends Struct { static readonly ANY_KIND: 0; static readonly STRUCT: 1; static readonly LIST: 2; static readonly CAPABILITY: 3; static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; get _isAnyKind(): boolean; set anyKind(_: true); get _isStruct(): boolean; set struct(_: true); get _isList(): boolean; set list(_: true); get _isCapability(): boolean; set capability(_: true); toString(): string; which(): Type_AnyPointer_Unconstrained_Which; } /** * This is actually a reference to a type parameter defined within this scope. * */ declare class Type_AnyPointer_Parameter extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; /** * ID of the generic type whose parameter we're referencing. This should be a parent of the * current scope. * */ get scopeId(): bigint; set scopeId(value: bigint); /** * Index of the parameter within the generic type's parameter list. * */ get parameterIndex(): number; set parameterIndex(value: number); toString(): string; } /** * This is actually a reference to an implicit (generic) parameter of a method. The only * legal context for this type to appear is inside Method.paramBrand or Method.resultBrand. * */ declare class Type_AnyPointer_ImplicitMethodParameter extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; get parameterIndex(): number; set parameterIndex(value: number); toString(): string; } declare const Type_AnyPointer_Which: { /** * A regular AnyPointer. * * The name "unconstrained" means as opposed to constraining it to match a type parameter. * In retrospect this name is probably a poor choice given that it may still be constrained * to be a struct, list, or capability. * */ readonly UNCONSTRAINED: 0; /** * This is actually a reference to a type parameter defined within this scope. * */ readonly PARAMETER: 1; /** * This is actually a reference to an implicit (generic) parameter of a method. The only * legal context for this type to appear is inside Method.paramBrand or Method.resultBrand. * */ readonly IMPLICIT_METHOD_PARAMETER: 2; }; type Type_AnyPointer_Which = (typeof Type_AnyPointer_Which)[keyof typeof Type_AnyPointer_Which]; declare class Type_AnyPointer extends Struct { static readonly UNCONSTRAINED: 0; static readonly PARAMETER: 1; static readonly IMPLICIT_METHOD_PARAMETER: 2; static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; /** * A regular AnyPointer. * * The name "unconstrained" means as opposed to constraining it to match a type parameter. * In retrospect this name is probably a poor choice given that it may still be constrained * to be a struct, list, or capability. * */ get unconstrained(): Type_AnyPointer_Unconstrained; _initUnconstrained(): Type_AnyPointer_Unconstrained; get _isUnconstrained(): boolean; set unconstrained(_: true); /** * This is actually a reference to a type parameter defined within this scope. * */ get parameter(): Type_AnyPointer_Parameter; _initParameter(): Type_AnyPointer_Parameter; get _isParameter(): boolean; set parameter(_: true); /** * This is actually a reference to an implicit (generic) parameter of a method. The only * legal context for this type to appear is inside Method.paramBrand or Method.resultBrand. * */ get implicitMethodParameter(): Type_AnyPointer_ImplicitMethodParameter; _initImplicitMethodParameter(): Type_AnyPointer_ImplicitMethodParameter; get _isImplicitMethodParameter(): boolean; set implicitMethodParameter(_: true); toString(): string; which(): Type_AnyPointer_Which; } declare const Type_Which: { readonly VOID: 0; readonly BOOL: 1; readonly INT8: 2; readonly INT16: 3; readonly INT32: 4; readonly INT64: 5; readonly UINT8: 6; readonly UINT16: 7; readonly UINT32: 8; readonly UINT64: 9; readonly FLOAT32: 10; readonly FLOAT64: 11; readonly TEXT: 12; readonly DATA: 13; readonly LIST: 14; readonly ENUM: 15; readonly STRUCT: 16; readonly INTERFACE: 17; readonly ANY_POINTER: 18; }; type Type_Which = (typeof Type_Which)[keyof typeof Type_Which]; /** * Represents a type expression. * */ declare class Type extends Struct { static readonly VOID: 0; static readonly BOOL: 1; static readonly INT8: 2; static readonly INT16: 3; static readonly INT32: 4; static readonly INT64: 5; static readonly UINT8: 6; static readonly UINT16: 7; static readonly UINT32: 8; static readonly UINT64: 9; static readonly FLOAT32: 10; static readonly FLOAT64: 11; static readonly TEXT: 12; static readonly DATA: 13; static readonly LIST: 14; static readonly ENUM: 15; static readonly STRUCT: 16; static readonly INTERFACE: 17; static readonly ANY_POINTER: 18; static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; get _isVoid(): boolean; set void(_: true); get _isBool(): boolean; set bool(_: true); get _isInt8(): boolean; set int8(_: true); get _isInt16(): boolean; set int16(_: true); get _isInt32(): boolean; set int32(_: true); get _isInt64(): boolean; set int64(_: true); get _isUint8(): boolean; set uint8(_: true); get _isUint16(): boolean; set uint16(_: true); get _isUint32(): boolean; set uint32(_: true); get _isUint64(): boolean; set uint64(_: true); get _isFloat32(): boolean; set float32(_: true); get _isFloat64(): boolean; set float64(_: true); get _isText(): boolean; set text(_: true); get _isData(): boolean; set data(_: true); get list(): Type_List; _initList(): Type_List; get _isList(): boolean; set list(_: true); get enum(): Type_Enum; _initEnum(): Type_Enum; get _isEnum(): boolean; set enum(_: true); get struct(): Type_Struct; _initStruct(): Type_Struct; get _isStruct(): boolean; set struct(_: true); get interface(): Type_Interface; _initInterface(): Type_Interface; get _isInterface(): boolean; set interface(_: true); get anyPointer(): Type_AnyPointer; _initAnyPointer(): Type_AnyPointer; get _isAnyPointer(): boolean; set anyPointer(_: true); toString(): string; which(): Type_Which; } declare const Brand_Scope_Which: { /** * ID of the scope to which these params apply. * */ readonly BIND: 0; /** * List of parameter bindings. * */ readonly INHERIT: 1; }; type Brand_Scope_Which = (typeof Brand_Scope_Which)[keyof typeof Brand_Scope_Which]; declare class Brand_Scope extends Struct { static readonly BIND: 0; static readonly INHERIT: 1; static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; static _Bind: ListCtor; /** * ID of the scope to which these params apply. * */ get scopeId(): bigint; set scopeId(value: bigint); _adoptBind(value: Orphan>): void; _disownBind(): Orphan>; /** * List of parameter bindings. * */ get bind(): List; _hasBind(): boolean; _initBind(length: number): List; get _isBind(): boolean; set bind(value: List); get _isInherit(): boolean; set inherit(_: true); toString(): string; which(): Brand_Scope_Which; } declare const Brand_Binding_Which: { readonly UNBOUND: 0; readonly TYPE: 1; }; type Brand_Binding_Which = (typeof Brand_Binding_Which)[keyof typeof Brand_Binding_Which]; declare class Brand_Binding extends Struct { static readonly UNBOUND: 0; static readonly TYPE: 1; static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; get _isUnbound(): boolean; set unbound(_: true); _adoptType(value: Orphan): void; _disownType(): Orphan; get type(): Type; _hasType(): boolean; _initType(): Type; get _isType(): boolean; set type(value: Type); toString(): string; which(): Brand_Binding_Which; } /** * Specifies bindings for parameters of generics. Since these bindings turn a generic into a * non-generic, we call it the "brand". * */ declare class Brand extends Struct { static readonly Scope: typeof Brand_Scope; static readonly Binding: typeof Brand_Binding; static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; static _Scopes: ListCtor; _adoptScopes(value: Orphan>): void; _disownScopes(): Orphan>; /** * For each of the target type and each of its parent scopes, a parameterization may be included * in this list. If no parameterization is included for a particular relevant scope, then either * that scope has no parameters or all parameters should be considered to be `AnyPointer`. * */ get scopes(): List; _hasScopes(): boolean; _initScopes(length: number): List; set scopes(value: List); toString(): string; } declare const Value_Which: { readonly VOID: 0; readonly BOOL: 1; readonly INT8: 2; readonly INT16: 3; readonly INT32: 4; readonly INT64: 5; readonly UINT8: 6; readonly UINT16: 7; readonly UINT32: 8; readonly UINT64: 9; readonly FLOAT32: 10; readonly FLOAT64: 11; readonly TEXT: 12; readonly DATA: 13; readonly LIST: 14; readonly ENUM: 15; readonly STRUCT: 16; /** * The only interface value that can be represented statically is "null", whose methods always * throw exceptions. * */ readonly INTERFACE: 17; readonly ANY_POINTER: 18; }; type Value_Which = (typeof Value_Which)[keyof typeof Value_Which]; /** * Represents a value, e.g. a field default value, constant value, or annotation value. * */ declare class Value extends Struct { static readonly VOID: 0; static readonly BOOL: 1; static readonly INT8: 2; static readonly INT16: 3; static readonly INT32: 4; static readonly INT64: 5; static readonly UINT8: 6; static readonly UINT16: 7; static readonly UINT32: 8; static readonly UINT64: 9; static readonly FLOAT32: 10; static readonly FLOAT64: 11; static readonly TEXT: 12; static readonly DATA: 13; static readonly LIST: 14; static readonly ENUM: 15; static readonly STRUCT: 16; static readonly INTERFACE: 17; static readonly ANY_POINTER: 18; static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; get _isVoid(): boolean; set void(_: true); get bool(): boolean; get _isBool(): boolean; set bool(value: boolean); get int8(): number; get _isInt8(): boolean; set int8(value: number); get int16(): number; get _isInt16(): boolean; set int16(value: number); get int32(): number; get _isInt32(): boolean; set int32(value: number); get int64(): bigint; get _isInt64(): boolean; set int64(value: bigint); get uint8(): number; get _isUint8(): boolean; set uint8(value: number); get uint16(): number; get _isUint16(): boolean; set uint16(value: number); get uint32(): number; get _isUint32(): boolean; set uint32(value: number); get uint64(): bigint; get _isUint64(): boolean; set uint64(value: bigint); get float32(): number; get _isFloat32(): boolean; set float32(value: number); get float64(): number; get _isFloat64(): boolean; set float64(value: number); get text(): string; get _isText(): boolean; set text(value: string); _adoptData(value: Orphan): void; _disownData(): Orphan; get data(): Data; _hasData(): boolean; _initData(length: number): Data; get _isData(): boolean; set data(value: Data); _adoptList(value: Orphan): void; _disownList(): Orphan; get list(): Pointer; _hasList(): boolean; get _isList(): boolean; set list(value: Pointer); get enum(): number; get _isEnum(): boolean; set enum(value: number); _adoptStruct(value: Orphan): void; _disownStruct(): Orphan; get struct(): Pointer; _hasStruct(): boolean; get _isStruct(): boolean; set struct(value: Pointer); get _isInterface(): boolean; set interface(_: true); _adoptAnyPointer(value: Orphan): void; _disownAnyPointer(): Orphan; get anyPointer(): Pointer; _hasAnyPointer(): boolean; get _isAnyPointer(): boolean; set anyPointer(value: Pointer); toString(): string; which(): Value_Which; } /** * Describes an annotation applied to a declaration. Note AnnotationNode describes the * annotation's declaration, while this describes a use of the annotation. * */ declare class Annotation extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; /** * ID of the annotation node. * */ get id(): bigint; set id(value: bigint); _adoptBrand(value: Orphan): void; _disownBrand(): Orphan; /** * Brand of the annotation. * * Note that the annotation itself is not allowed to be parameterized, but its scope might be. * */ get brand(): Brand; _hasBrand(): boolean; _initBrand(): Brand; set brand(value: Brand); _adoptValue(value: Orphan): void; _disownValue(): Orphan; get value(): Value; _hasValue(): boolean; _initValue(): Value; set value(value: Value); toString(): string; } declare const ElementSize: { /** * aka "void", but that's a keyword. * */ readonly EMPTY: 0; readonly BIT: 1; readonly BYTE: 2; readonly TWO_BYTES: 3; readonly FOUR_BYTES: 4; readonly EIGHT_BYTES: 5; readonly POINTER: 6; readonly INLINE_COMPOSITE: 7; }; type ElementSize = (typeof ElementSize)[keyof typeof ElementSize]; declare class CapnpVersion extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; get major(): number; set major(value: number); get minor(): number; set minor(value: number); get micro(): number; set micro(value: number); toString(): string; } declare class CodeGeneratorRequest_RequestedFile_Import extends Struct { static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; /** * ID of the imported file. * */ get id(): bigint; set id(value: bigint); /** * Name which *this* file used to refer to the foreign file. This may be a relative name. * This information is provided because it might be useful for code generation, e.g. to * generate #include directives in C++. We don't put this in Node.file because this * information is only meaningful at compile time anyway. * * (On Zooko's triangle, this is the import's petname according to the importing file.) * */ get name(): string; set name(value: string); toString(): string; } declare class CodeGeneratorRequest_RequestedFile extends Struct { static readonly Import: typeof CodeGeneratorRequest_RequestedFile_Import; static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; static _Imports: ListCtor; /** * ID of the file. * */ get id(): bigint; set id(value: bigint); /** * Name of the file as it appeared on the command-line (minus the src-prefix). You may use * this to decide where to write the output. * */ get filename(): string; set filename(value: string); _adoptImports(value: Orphan>): void; _disownImports(): Orphan>; /** * List of all imported paths seen in this file. * */ get imports(): List; _hasImports(): boolean; _initImports(length: number): List; set imports(value: List); toString(): string; } declare class CodeGeneratorRequest extends Struct { static readonly RequestedFile: typeof CodeGeneratorRequest_RequestedFile; static readonly _capnp: { displayName: string; id: string; size: ObjectSize; }; static _Nodes: ListCtor; static _SourceInfo: ListCtor; static _RequestedFiles: ListCtor; _adoptCapnpVersion(value: Orphan): void; _disownCapnpVersion(): Orphan; /** * Version of the `capnp` executable. Generally, code generators should ignore this, but the code * generators that ship with `capnp` itself will print a warning if this mismatches since that * probably indicates something is misconfigured. * * The first version of 'capnp' to set this was 0.6.0. So, if it's missing, the compiler version * is older than that. * */ get capnpVersion(): CapnpVersion; _hasCapnpVersion(): boolean; _initCapnpVersion(): CapnpVersion; set capnpVersion(value: CapnpVersion); _adoptNodes(value: Orphan>): void; _disownNodes(): Orphan>; /** * All nodes parsed by the compiler, including for the files on the command line and their * imports. * */ get nodes(): List; _hasNodes(): boolean; _initNodes(length: number): List; set nodes(value: List); _adoptSourceInfo(value: Orphan>): void; _disownSourceInfo(): Orphan>; /** * Information about the original source code for each node, where available. This array may be * omitted or may be missing some nodes if no info is available for them. * */ get sourceInfo(): List; _hasSourceInfo(): boolean; _initSourceInfo(length: number): List; set sourceInfo(value: List); _adoptRequestedFiles(value: Orphan>): void; _disownRequestedFiles(): Orphan>; /** * Files which were listed on the command line. * */ get requestedFiles(): List; _hasRequestedFiles(): boolean; _initRequestedFiles(length: number): List; set requestedFiles(value: List); toString(): string; } export { Annotation, Brand, Brand_Binding, Brand_Binding_Which, Brand_Scope, Brand_Scope_Which, CapnpVersion, CodeGeneratorRequest, CodeGeneratorRequest_RequestedFile, CodeGeneratorRequest_RequestedFile_Import, ElementSize, Enumerant, Field, Field_Group, Field_Ordinal, Field_Ordinal_Which, Field_Slot, Field_Which, Method, Node, Node_Annotation, Node_Const, Node_Enum, Node_Interface, Node_NestedNode, Node_Parameter, Node_SourceInfo, Node_SourceInfo_Member, Node_Struct, Node_Which, Superclass, Type, Type_AnyPointer, Type_AnyPointer_ImplicitMethodParameter, Type_AnyPointer_Parameter, Type_AnyPointer_Unconstrained, Type_AnyPointer_Unconstrained_Which, Type_AnyPointer_Which, Type_Enum, Type_Interface, Type_List, Type_Struct, Type_Which, Value, Value_Which, _capnpFileId };