@stryke/capnp
Version:
A package to assist in running the Cap'n Proto compiler and creating Cap'n Proto serialization protocol schemas.
1,759 lines (1,757 loc) • 77.2 kB
JavaScript
Object.defineProperty(exports, Symbol.toStringTag, { value: 'Module' });
const require_src = require('./src-B6FhDNiV.cjs');
//#region schemas/schema.ts
const _capnpFileId = BigInt("0xa93fc509624c72d9");
/**
* Information about one of the node's parameters.
*
*/
var Node_Parameter = class extends require_src.Struct {
static _capnp = {
displayName: "Parameter",
id: "b9521bccf10fa3b1",
size: new require_src.ObjectSize(0, 1)
};
get name() {
return require_src.utils.getText(0, this);
}
set name(value) {
require_src.utils.setText(0, value, this);
}
toString() {
return "Node_Parameter_" + super.toString();
}
};
var Node_NestedNode = class extends require_src.Struct {
static _capnp = {
displayName: "NestedNode",
id: "debf55bbfa0fc242",
size: new require_src.ObjectSize(8, 1)
};
/**
* 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() {
return require_src.utils.getText(0, this);
}
set name(value) {
require_src.utils.setText(0, value, this);
}
/**
* 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() {
return require_src.utils.getUint64(0, this);
}
set id(value) {
require_src.utils.setUint64(0, value, this);
}
toString() {
return "Node_NestedNode_" + super.toString();
}
};
var Node_SourceInfo_Member = class extends require_src.Struct {
static _capnp = {
displayName: "Member",
id: "c2ba9038898e1fa2",
size: new require_src.ObjectSize(0, 1)
};
/**
* Doc comment on the member.
*
*/
get docComment() {
return require_src.utils.getText(0, this);
}
set docComment(value) {
require_src.utils.setText(0, value, this);
}
toString() {
return "Node_SourceInfo_Member_" + super.toString();
}
};
/**
* 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.
*
*/
var Node_SourceInfo = class Node_SourceInfo extends require_src.Struct {
static Member = Node_SourceInfo_Member;
static _capnp = {
displayName: "SourceInfo",
id: "f38e1de3041357ae",
size: new require_src.ObjectSize(8, 2)
};
static _Members;
/**
* ID of the Node which this info describes.
*
*/
get id() {
return require_src.utils.getUint64(0, this);
}
set id(value) {
require_src.utils.setUint64(0, value, this);
}
/**
* The top-level doc comment for the Node.
*
*/
get docComment() {
return require_src.utils.getText(0, this);
}
set docComment(value) {
require_src.utils.setText(0, value, this);
}
_adoptMembers(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(1, this));
}
_disownMembers() {
return require_src.utils.disown(this.members);
}
/**
* 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() {
return require_src.utils.getList(1, Node_SourceInfo._Members, this);
}
_hasMembers() {
return !require_src.utils.isNull(require_src.utils.getPointer(1, this));
}
_initMembers(length) {
return require_src.utils.initList(1, Node_SourceInfo._Members, length, this);
}
set members(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(1, this));
}
toString() {
return "Node_SourceInfo_" + super.toString();
}
};
var Node_Struct = class Node_Struct extends require_src.Struct {
static _capnp = {
displayName: "struct",
id: "9ea0b19b37fb4435",
size: new require_src.ObjectSize(40, 6)
};
static _Fields;
/**
* Size of the data section, in words.
*
*/
get dataWordCount() {
return require_src.utils.getUint16(14, this);
}
set dataWordCount(value) {
require_src.utils.setUint16(14, value, this);
}
/**
* Size of the pointer section, in pointers (which are one word each).
*
*/
get pointerCount() {
return require_src.utils.getUint16(24, this);
}
set pointerCount(value) {
require_src.utils.setUint16(24, value, this);
}
/**
* 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() {
return require_src.utils.getUint16(26, this);
}
set preferredListEncoding(value) {
require_src.utils.setUint16(26, value, this);
}
/**
* 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() {
return require_src.utils.getBit(224, this);
}
set isGroup(value) {
require_src.utils.setBit(224, value, this);
}
/**
* 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() {
return require_src.utils.getUint16(30, this);
}
set discriminantCount(value) {
require_src.utils.setUint16(30, value, this);
}
/**
* If `discriminantCount` is non-zero, this is the offset of the union discriminant, in
* multiples of 16 bits.
*
*/
get discriminantOffset() {
return require_src.utils.getUint32(32, this);
}
set discriminantOffset(value) {
require_src.utils.setUint32(32, value, this);
}
_adoptFields(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(3, this));
}
_disownFields() {
return require_src.utils.disown(this.fields);
}
/**
* 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() {
return require_src.utils.getList(3, Node_Struct._Fields, this);
}
_hasFields() {
return !require_src.utils.isNull(require_src.utils.getPointer(3, this));
}
_initFields(length) {
return require_src.utils.initList(3, Node_Struct._Fields, length, this);
}
set fields(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(3, this));
}
toString() {
return "Node_Struct_" + super.toString();
}
};
var Node_Enum = class Node_Enum extends require_src.Struct {
static _capnp = {
displayName: "enum",
id: "b54ab3364333f598",
size: new require_src.ObjectSize(40, 6)
};
static _Enumerants;
_adoptEnumerants(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(3, this));
}
_disownEnumerants() {
return require_src.utils.disown(this.enumerants);
}
/**
* Enumerants ordered by numeric value (ordinal).
*
*/
get enumerants() {
return require_src.utils.getList(3, Node_Enum._Enumerants, this);
}
_hasEnumerants() {
return !require_src.utils.isNull(require_src.utils.getPointer(3, this));
}
_initEnumerants(length) {
return require_src.utils.initList(3, Node_Enum._Enumerants, length, this);
}
set enumerants(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(3, this));
}
toString() {
return "Node_Enum_" + super.toString();
}
};
var Node_Interface = class Node_Interface extends require_src.Struct {
static _capnp = {
displayName: "interface",
id: "e82753cff0c2218f",
size: new require_src.ObjectSize(40, 6)
};
static _Methods;
static _Superclasses;
_adoptMethods(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(3, this));
}
_disownMethods() {
return require_src.utils.disown(this.methods);
}
/**
* Methods ordered by ordinal.
*
*/
get methods() {
return require_src.utils.getList(3, Node_Interface._Methods, this);
}
_hasMethods() {
return !require_src.utils.isNull(require_src.utils.getPointer(3, this));
}
_initMethods(length) {
return require_src.utils.initList(3, Node_Interface._Methods, length, this);
}
set methods(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(3, this));
}
_adoptSuperclasses(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(4, this));
}
_disownSuperclasses() {
return require_src.utils.disown(this.superclasses);
}
/**
* Superclasses of this interface.
*
*/
get superclasses() {
return require_src.utils.getList(4, Node_Interface._Superclasses, this);
}
_hasSuperclasses() {
return !require_src.utils.isNull(require_src.utils.getPointer(4, this));
}
_initSuperclasses(length) {
return require_src.utils.initList(4, Node_Interface._Superclasses, length, this);
}
set superclasses(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(4, this));
}
toString() {
return "Node_Interface_" + super.toString();
}
};
var Node_Const = class extends require_src.Struct {
static _capnp = {
displayName: "const",
id: "b18aa5ac7a0d9420",
size: new require_src.ObjectSize(40, 6)
};
_adoptType(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(3, this));
}
_disownType() {
return require_src.utils.disown(this.type);
}
get type() {
return require_src.utils.getStruct(3, Type, this);
}
_hasType() {
return !require_src.utils.isNull(require_src.utils.getPointer(3, this));
}
_initType() {
return require_src.utils.initStructAt(3, Type, this);
}
set type(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(3, this));
}
_adoptValue(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(4, this));
}
_disownValue() {
return require_src.utils.disown(this.value);
}
get value() {
return require_src.utils.getStruct(4, Value, this);
}
_hasValue() {
return !require_src.utils.isNull(require_src.utils.getPointer(4, this));
}
_initValue() {
return require_src.utils.initStructAt(4, Value, this);
}
set value(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(4, this));
}
toString() {
return "Node_Const_" + super.toString();
}
};
var Node_Annotation = class extends require_src.Struct {
static _capnp = {
displayName: "annotation",
id: "ec1619d4400a0290",
size: new require_src.ObjectSize(40, 6)
};
_adoptType(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(3, this));
}
_disownType() {
return require_src.utils.disown(this.type);
}
get type() {
return require_src.utils.getStruct(3, Type, this);
}
_hasType() {
return !require_src.utils.isNull(require_src.utils.getPointer(3, this));
}
_initType() {
return require_src.utils.initStructAt(3, Type, this);
}
set type(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(3, this));
}
get targetsFile() {
return require_src.utils.getBit(112, this);
}
set targetsFile(value) {
require_src.utils.setBit(112, value, this);
}
get targetsConst() {
return require_src.utils.getBit(113, this);
}
set targetsConst(value) {
require_src.utils.setBit(113, value, this);
}
get targetsEnum() {
return require_src.utils.getBit(114, this);
}
set targetsEnum(value) {
require_src.utils.setBit(114, value, this);
}
get targetsEnumerant() {
return require_src.utils.getBit(115, this);
}
set targetsEnumerant(value) {
require_src.utils.setBit(115, value, this);
}
get targetsStruct() {
return require_src.utils.getBit(116, this);
}
set targetsStruct(value) {
require_src.utils.setBit(116, value, this);
}
get targetsField() {
return require_src.utils.getBit(117, this);
}
set targetsField(value) {
require_src.utils.setBit(117, value, this);
}
get targetsUnion() {
return require_src.utils.getBit(118, this);
}
set targetsUnion(value) {
require_src.utils.setBit(118, value, this);
}
get targetsGroup() {
return require_src.utils.getBit(119, this);
}
set targetsGroup(value) {
require_src.utils.setBit(119, value, this);
}
get targetsInterface() {
return require_src.utils.getBit(120, this);
}
set targetsInterface(value) {
require_src.utils.setBit(120, value, this);
}
get targetsMethod() {
return require_src.utils.getBit(121, this);
}
set targetsMethod(value) {
require_src.utils.setBit(121, value, this);
}
get targetsParam() {
return require_src.utils.getBit(122, this);
}
set targetsParam(value) {
require_src.utils.setBit(122, value, this);
}
get targetsAnnotation() {
return require_src.utils.getBit(123, this);
}
set targetsAnnotation(value) {
require_src.utils.setBit(123, value, this);
}
toString() {
return "Node_Annotation_" + super.toString();
}
};
const Node_Which = {
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.)
*
*/
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`.
*
*/
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).
*
*/
INTERFACE: 3,
/**
* List of nodes nested within this node, along with the names under which they were declared.
*
*/
CONST: 4,
/**
* Annotations applied to this node.
*
*/
ANNOTATION: 5
};
var Node = class Node extends require_src.Struct {
static FILE = Node_Which.FILE;
static STRUCT = Node_Which.STRUCT;
static ENUM = Node_Which.ENUM;
static INTERFACE = Node_Which.INTERFACE;
static CONST = Node_Which.CONST;
static ANNOTATION = Node_Which.ANNOTATION;
static Parameter = Node_Parameter;
static NestedNode = Node_NestedNode;
static SourceInfo = Node_SourceInfo;
static _capnp = {
displayName: "Node",
id: "e682ab4cf923a417",
size: new require_src.ObjectSize(40, 6)
};
static _Parameters;
static _NestedNodes;
static _Annotations;
get id() {
return require_src.utils.getUint64(0, this);
}
set id(value) {
require_src.utils.setUint64(0, value, this);
}
/**
* 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() {
return require_src.utils.getText(0, this);
}
set displayName(value) {
require_src.utils.setText(0, value, this);
}
/**
* 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() {
return require_src.utils.getUint32(8, this);
}
set displayNamePrefixLength(value) {
require_src.utils.setUint32(8, value, this);
}
/**
* 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() {
return require_src.utils.getUint64(16, this);
}
set scopeId(value) {
require_src.utils.setUint64(16, value, this);
}
_adoptParameters(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(5, this));
}
_disownParameters() {
return require_src.utils.disown(this.parameters);
}
/**
* If this node is parameterized (generic), the list of parameters. Empty for non-generic types.
*
*/
get parameters() {
return require_src.utils.getList(5, Node._Parameters, this);
}
_hasParameters() {
return !require_src.utils.isNull(require_src.utils.getPointer(5, this));
}
_initParameters(length) {
return require_src.utils.initList(5, Node._Parameters, length, this);
}
set parameters(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(5, this));
}
/**
* True if this node is generic, meaning that it or one of its parent scopes has a non-empty
* `parameters`.
*
*/
get isGeneric() {
return require_src.utils.getBit(288, this);
}
set isGeneric(value) {
require_src.utils.setBit(288, value, this);
}
_adoptNestedNodes(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(1, this));
}
_disownNestedNodes() {
return require_src.utils.disown(this.nestedNodes);
}
/**
* List of nodes nested within this node, along with the names under which they were declared.
*
*/
get nestedNodes() {
return require_src.utils.getList(1, Node._NestedNodes, this);
}
_hasNestedNodes() {
return !require_src.utils.isNull(require_src.utils.getPointer(1, this));
}
_initNestedNodes(length) {
return require_src.utils.initList(1, Node._NestedNodes, length, this);
}
set nestedNodes(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(1, this));
}
_adoptAnnotations(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(2, this));
}
_disownAnnotations() {
return require_src.utils.disown(this.annotations);
}
/**
* Annotations applied to this node.
*
*/
get annotations() {
return require_src.utils.getList(2, Node._Annotations, this);
}
_hasAnnotations() {
return !require_src.utils.isNull(require_src.utils.getPointer(2, this));
}
_initAnnotations(length) {
return require_src.utils.initList(2, Node._Annotations, length, this);
}
set annotations(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(2, this));
}
get _isFile() {
return require_src.utils.getUint16(12, this) === 0;
}
set file(_) {
require_src.utils.setUint16(12, 0, this);
}
get struct() {
require_src.utils.testWhich("struct", require_src.utils.getUint16(12, this), 1, this);
return require_src.utils.getAs(Node_Struct, this);
}
_initStruct() {
require_src.utils.setUint16(12, 1, this);
return require_src.utils.getAs(Node_Struct, this);
}
get _isStruct() {
return require_src.utils.getUint16(12, this) === 1;
}
set struct(_) {
require_src.utils.setUint16(12, 1, this);
}
get enum() {
require_src.utils.testWhich("enum", require_src.utils.getUint16(12, this), 2, this);
return require_src.utils.getAs(Node_Enum, this);
}
_initEnum() {
require_src.utils.setUint16(12, 2, this);
return require_src.utils.getAs(Node_Enum, this);
}
get _isEnum() {
return require_src.utils.getUint16(12, this) === 2;
}
set enum(_) {
require_src.utils.setUint16(12, 2, this);
}
get interface() {
require_src.utils.testWhich("interface", require_src.utils.getUint16(12, this), 3, this);
return require_src.utils.getAs(Node_Interface, this);
}
_initInterface() {
require_src.utils.setUint16(12, 3, this);
return require_src.utils.getAs(Node_Interface, this);
}
get _isInterface() {
return require_src.utils.getUint16(12, this) === 3;
}
set interface(_) {
require_src.utils.setUint16(12, 3, this);
}
get const() {
require_src.utils.testWhich("const", require_src.utils.getUint16(12, this), 4, this);
return require_src.utils.getAs(Node_Const, this);
}
_initConst() {
require_src.utils.setUint16(12, 4, this);
return require_src.utils.getAs(Node_Const, this);
}
get _isConst() {
return require_src.utils.getUint16(12, this) === 4;
}
set const(_) {
require_src.utils.setUint16(12, 4, this);
}
get annotation() {
require_src.utils.testWhich("annotation", require_src.utils.getUint16(12, this), 5, this);
return require_src.utils.getAs(Node_Annotation, this);
}
_initAnnotation() {
require_src.utils.setUint16(12, 5, this);
return require_src.utils.getAs(Node_Annotation, this);
}
get _isAnnotation() {
return require_src.utils.getUint16(12, this) === 5;
}
set annotation(_) {
require_src.utils.setUint16(12, 5, this);
}
toString() {
return "Node_" + super.toString();
}
which() {
return require_src.utils.getUint16(12, this);
}
};
/**
* A regular, non-group, non-fixed-list field.
*
*/
var Field_Slot = class extends require_src.Struct {
static _capnp = {
displayName: "slot",
id: "c42305476bb4746f",
size: new require_src.ObjectSize(24, 4)
};
/**
* 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() {
return require_src.utils.getUint32(4, this);
}
set offset(value) {
require_src.utils.setUint32(4, value, this);
}
_adoptType(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(2, this));
}
_disownType() {
return require_src.utils.disown(this.type);
}
get type() {
return require_src.utils.getStruct(2, Type, this);
}
_hasType() {
return !require_src.utils.isNull(require_src.utils.getPointer(2, this));
}
_initType() {
return require_src.utils.initStructAt(2, Type, this);
}
set type(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(2, this));
}
_adoptDefaultValue(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(3, this));
}
_disownDefaultValue() {
return require_src.utils.disown(this.defaultValue);
}
get defaultValue() {
return require_src.utils.getStruct(3, Value, this);
}
_hasDefaultValue() {
return !require_src.utils.isNull(require_src.utils.getPointer(3, this));
}
_initDefaultValue() {
return require_src.utils.initStructAt(3, Value, this);
}
set defaultValue(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(3, this));
}
/**
* 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() {
return require_src.utils.getBit(128, this);
}
set hadExplicitDefault(value) {
require_src.utils.setBit(128, value, this);
}
toString() {
return "Field_Slot_" + super.toString();
}
};
/**
* A group.
*
*/
var Field_Group = class extends require_src.Struct {
static _capnp = {
displayName: "group",
id: "cafccddb68db1d11",
size: new require_src.ObjectSize(24, 4)
};
/**
* The ID of the group's node.
*
*/
get typeId() {
return require_src.utils.getUint64(16, this);
}
set typeId(value) {
require_src.utils.setUint64(16, value, this);
}
toString() {
return "Field_Group_" + super.toString();
}
};
const Field_Ordinal_Which = {
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.
*
*/
EXPLICIT: 1
};
var Field_Ordinal = class extends require_src.Struct {
static IMPLICIT = Field_Ordinal_Which.IMPLICIT;
static EXPLICIT = Field_Ordinal_Which.EXPLICIT;
static _capnp = {
displayName: "ordinal",
id: "bb90d5c287870be6",
size: new require_src.ObjectSize(24, 4)
};
get _isImplicit() {
return require_src.utils.getUint16(10, this) === 0;
}
set implicit(_) {
require_src.utils.setUint16(10, 0, this);
}
/**
* 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() {
require_src.utils.testWhich("explicit", require_src.utils.getUint16(10, this), 1, this);
return require_src.utils.getUint16(12, this);
}
get _isExplicit() {
return require_src.utils.getUint16(10, this) === 1;
}
set explicit(value) {
require_src.utils.setUint16(10, 1, this);
require_src.utils.setUint16(12, value, this);
}
toString() {
return "Field_Ordinal_" + super.toString();
}
which() {
return require_src.utils.getUint16(10, this);
}
};
const Field_Which = {
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).
*
*/
GROUP: 1
};
/**
* Schema for a field of a struct.
*
*/
var Field = class Field extends require_src.Struct {
static NO_DISCRIMINANT = 65535;
static SLOT = Field_Which.SLOT;
static GROUP = Field_Which.GROUP;
static _capnp = {
displayName: "Field",
id: "9aad50a41f4af45f",
size: new require_src.ObjectSize(24, 4),
defaultDiscriminantValue: require_src.getUint16Mask(65535)
};
static _Annotations;
get name() {
return require_src.utils.getText(0, this);
}
set name(value) {
require_src.utils.setText(0, value, this);
}
/**
* 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() {
return require_src.utils.getUint16(0, this);
}
set codeOrder(value) {
require_src.utils.setUint16(0, value, this);
}
_adoptAnnotations(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(1, this));
}
_disownAnnotations() {
return require_src.utils.disown(this.annotations);
}
get annotations() {
return require_src.utils.getList(1, Field._Annotations, this);
}
_hasAnnotations() {
return !require_src.utils.isNull(require_src.utils.getPointer(1, this));
}
_initAnnotations(length) {
return require_src.utils.initList(1, Field._Annotations, length, this);
}
set annotations(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(1, this));
}
/**
* 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() {
return require_src.utils.getUint16(2, this, Field._capnp.defaultDiscriminantValue);
}
set discriminantValue(value) {
require_src.utils.setUint16(2, value, this, Field._capnp.defaultDiscriminantValue);
}
/**
* A regular, non-group, non-fixed-list field.
*
*/
get slot() {
require_src.utils.testWhich("slot", require_src.utils.getUint16(8, this), 0, this);
return require_src.utils.getAs(Field_Slot, this);
}
_initSlot() {
require_src.utils.setUint16(8, 0, this);
return require_src.utils.getAs(Field_Slot, this);
}
get _isSlot() {
return require_src.utils.getUint16(8, this) === 0;
}
set slot(_) {
require_src.utils.setUint16(8, 0, this);
}
/**
* A group.
*
*/
get group() {
require_src.utils.testWhich("group", require_src.utils.getUint16(8, this), 1, this);
return require_src.utils.getAs(Field_Group, this);
}
_initGroup() {
require_src.utils.setUint16(8, 1, this);
return require_src.utils.getAs(Field_Group, this);
}
get _isGroup() {
return require_src.utils.getUint16(8, this) === 1;
}
set group(_) {
require_src.utils.setUint16(8, 1, this);
}
get ordinal() {
return require_src.utils.getAs(Field_Ordinal, this);
}
_initOrdinal() {
return require_src.utils.getAs(Field_Ordinal, this);
}
toString() {
return "Field_" + super.toString();
}
which() {
return require_src.utils.getUint16(8, this);
}
};
/**
* Schema for member of an enum.
*
*/
var Enumerant = class Enumerant extends require_src.Struct {
static _capnp = {
displayName: "Enumerant",
id: "978a7cebdc549a4d",
size: new require_src.ObjectSize(8, 2)
};
static _Annotations;
get name() {
return require_src.utils.getText(0, this);
}
set name(value) {
require_src.utils.setText(0, value, this);
}
/**
* Specifies order in which the enumerants were declared in the code.
* Like utils.Field.codeOrder.
*
*/
get codeOrder() {
return require_src.utils.getUint16(0, this);
}
set codeOrder(value) {
require_src.utils.setUint16(0, value, this);
}
_adoptAnnotations(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(1, this));
}
_disownAnnotations() {
return require_src.utils.disown(this.annotations);
}
get annotations() {
return require_src.utils.getList(1, Enumerant._Annotations, this);
}
_hasAnnotations() {
return !require_src.utils.isNull(require_src.utils.getPointer(1, this));
}
_initAnnotations(length) {
return require_src.utils.initList(1, Enumerant._Annotations, length, this);
}
set annotations(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(1, this));
}
toString() {
return "Enumerant_" + super.toString();
}
};
var Superclass = class extends require_src.Struct {
static _capnp = {
displayName: "Superclass",
id: "a9962a9ed0a4d7f8",
size: new require_src.ObjectSize(8, 1)
};
get id() {
return require_src.utils.getUint64(0, this);
}
set id(value) {
require_src.utils.setUint64(0, value, this);
}
_adoptBrand(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(0, this));
}
_disownBrand() {
return require_src.utils.disown(this.brand);
}
get brand() {
return require_src.utils.getStruct(0, Brand, this);
}
_hasBrand() {
return !require_src.utils.isNull(require_src.utils.getPointer(0, this));
}
_initBrand() {
return require_src.utils.initStructAt(0, Brand, this);
}
set brand(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(0, this));
}
toString() {
return "Superclass_" + super.toString();
}
};
/**
* Schema for method of an interface.
*
*/
var Method = class Method extends require_src.Struct {
static _capnp = {
displayName: "Method",
id: "9500cce23b334d80",
size: new require_src.ObjectSize(24, 5)
};
static _ImplicitParameters;
static _Annotations;
get name() {
return require_src.utils.getText(0, this);
}
set name(value) {
require_src.utils.setText(0, value, this);
}
/**
* Specifies order in which the methods were declared in the code.
* Like utils.Field.codeOrder.
*
*/
get codeOrder() {
return require_src.utils.getUint16(0, this);
}
set codeOrder(value) {
require_src.utils.setUint16(0, value, this);
}
_adoptImplicitParameters(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(4, this));
}
_disownImplicitParameters() {
return require_src.utils.disown(this.implicitParameters);
}
/**
* 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() {
return require_src.utils.getList(4, Method._ImplicitParameters, this);
}
_hasImplicitParameters() {
return !require_src.utils.isNull(require_src.utils.getPointer(4, this));
}
_initImplicitParameters(length) {
return require_src.utils.initList(4, Method._ImplicitParameters, length, this);
}
set implicitParameters(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(4, this));
}
/**
* 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() {
return require_src.utils.getUint64(8, this);
}
set paramStructType(value) {
require_src.utils.setUint64(8, value, this);
}
_adoptParamBrand(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(2, this));
}
_disownParamBrand() {
return require_src.utils.disown(this.paramBrand);
}
/**
* Brand of param struct type.
*
*/
get paramBrand() {
return require_src.utils.getStruct(2, Brand, this);
}
_hasParamBrand() {
return !require_src.utils.isNull(require_src.utils.getPointer(2, this));
}
_initParamBrand() {
return require_src.utils.initStructAt(2, Brand, this);
}
set paramBrand(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(2, this));
}
/**
* ID of the return struct type; similar to `paramStructType`.
*
*/
get resultStructType() {
return require_src.utils.getUint64(16, this);
}
set resultStructType(value) {
require_src.utils.setUint64(16, value, this);
}
_adoptResultBrand(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(3, this));
}
_disownResultBrand() {
return require_src.utils.disown(this.resultBrand);
}
/**
* Brand of result struct type.
*
*/
get resultBrand() {
return require_src.utils.getStruct(3, Brand, this);
}
_hasResultBrand() {
return !require_src.utils.isNull(require_src.utils.getPointer(3, this));
}
_initResultBrand() {
return require_src.utils.initStructAt(3, Brand, this);
}
set resultBrand(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(3, this));
}
_adoptAnnotations(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(1, this));
}
_disownAnnotations() {
return require_src.utils.disown(this.annotations);
}
get annotations() {
return require_src.utils.getList(1, Method._Annotations, this);
}
_hasAnnotations() {
return !require_src.utils.isNull(require_src.utils.getPointer(1, this));
}
_initAnnotations(length) {
return require_src.utils.initList(1, Method._Annotations, length, this);
}
set annotations(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(1, this));
}
toString() {
return "Method_" + super.toString();
}
};
var Type_List = class extends require_src.Struct {
static _capnp = {
displayName: "list",
id: "87e739250a60ea97",
size: new require_src.ObjectSize(24, 1)
};
_adoptElementType(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(0, this));
}
_disownElementType() {
return require_src.utils.disown(this.elementType);
}
get elementType() {
return require_src.utils.getStruct(0, Type, this);
}
_hasElementType() {
return !require_src.utils.isNull(require_src.utils.getPointer(0, this));
}
_initElementType() {
return require_src.utils.initStructAt(0, Type, this);
}
set elementType(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(0, this));
}
toString() {
return "Type_List_" + super.toString();
}
};
var Type_Enum = class extends require_src.Struct {
static _capnp = {
displayName: "enum",
id: "9e0e78711a7f87a9",
size: new require_src.ObjectSize(24, 1)
};
get typeId() {
return require_src.utils.getUint64(8, this);
}
set typeId(value) {
require_src.utils.setUint64(8, value, this);
}
_adoptBrand(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(0, this));
}
_disownBrand() {
return require_src.utils.disown(this.brand);
}
get brand() {
return require_src.utils.getStruct(0, Brand, this);
}
_hasBrand() {
return !require_src.utils.isNull(require_src.utils.getPointer(0, this));
}
_initBrand() {
return require_src.utils.initStructAt(0, Brand, this);
}
set brand(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(0, this));
}
toString() {
return "Type_Enum_" + super.toString();
}
};
var Type_Struct = class extends require_src.Struct {
static _capnp = {
displayName: "struct",
id: "ac3a6f60ef4cc6d3",
size: new require_src.ObjectSize(24, 1)
};
get typeId() {
return require_src.utils.getUint64(8, this);
}
set typeId(value) {
require_src.utils.setUint64(8, value, this);
}
_adoptBrand(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(0, this));
}
_disownBrand() {
return require_src.utils.disown(this.brand);
}
get brand() {
return require_src.utils.getStruct(0, Brand, this);
}
_hasBrand() {
return !require_src.utils.isNull(require_src.utils.getPointer(0, this));
}
_initBrand() {
return require_src.utils.initStructAt(0, Brand, this);
}
set brand(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(0, this));
}
toString() {
return "Type_Struct_" + super.toString();
}
};
var Type_Interface = class extends require_src.Struct {
static _capnp = {
displayName: "interface",
id: "ed8bca69f7fb0cbf",
size: new require_src.ObjectSize(24, 1)
};
get typeId() {
return require_src.utils.getUint64(8, this);
}
set typeId(value) {
require_src.utils.setUint64(8, value, this);
}
_adoptBrand(value) {
require_src.utils.adopt(value, require_src.utils.getPointer(0, this));
}
_disownBrand() {
return require_src.utils.disown(this.brand);
}
get brand() {
return require_src.utils.getStruct(0, Brand, this);
}
_hasBrand() {
return !require_src.utils.isNull(require_src.utils.getPointer(0, this));
}
_initBrand() {
return require_src.utils.initStructAt(0, Brand, this);
}
set brand(value) {
require_src.utils.copyFrom(value, require_src.utils.getPointer(0, this));
}
toString() {
return "Type_Interface_" + super.toString();
}
};
const Type_AnyPointer_Unconstrained_Which = {
/**
* truly AnyPointer
*
*/
ANY_KIND: 0,
/**
* AnyStruct
*
*/
STRUCT: 1,
/**
* AnyList
*
*/
LIST: 2,
/**
* Capability
*
*/
CAPABILITY: 3
};
/**
* 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.
*
*/
var Type_AnyPointer_Unconstrained = class extends require_src.Struct {
static ANY_KIND = Type_AnyPointer_Unconstrained_Which.ANY_KIND;
static STRUCT = Type_AnyPointer_Unconstrained_Which.STRUCT;
static LIST = Type_AnyPointer_Unconstrained_Which.LIST;
static CAPABILITY = Type_AnyPointer_Unconstrained_Which.CAPABILITY;
static _capnp = {
displayName: "unconstrained",
id: "8e3b5f79fe593656",
size: new require_src.ObjectSize(24, 1)
};
get _isAnyKind() {
return require_src.utils.getUint16(10, this) === 0;
}
set anyKind(_) {
require_src.utils.setUint16(10, 0, this);
}
get _isStruct() {
return require_src.utils.getUint16(10, this) === 1;
}
set struct(_) {
require_src.utils.setUint16(10, 1, this);
}
get _isList() {
return require_src.utils.getUint16(10, this) === 2;
}
set list(_) {
require_src.utils.setUint16(10, 2, this);
}
get _isCapability() {
return require_src.utils.getUint16(10, this) === 3;
}
set capability(_) {
require_src.utils.setUint16(10, 3, this);
}
toString() {
return "Type_AnyPointer_Unconstrained_" + super.toString();
}
which() {
return require_src.utils.getUint16(10, this);
}
};
/**
* This is actually a reference to a type parameter defined within this scope.
*
*/
var Type_AnyPointer_Parameter = class extends require_src.Struct {
static _capnp = {
displayName: "parameter",
id: "9dd1f724f4614a85",
size: new require_src.ObjectSize(24, 1)
};
/**
* ID of the generic type whose parameter we're referencing. This should be a parent of the
* current scope.
*
*/
get scopeId() {
return require_src.utils.getUint64(16, this);
}
set scopeId(value) {
require_src.utils.setUint64(16, value, this);
}
/**
* Index of the parameter within the generic type's parameter list.
*
*/
get parameterIndex() {
return require_src.utils.getUint16(10, this);
}
set parameterIndex(value) {
require_src.utils.setUint16(10, value, this);
}
toString() {
return "Type_AnyPointer_Parameter_" + super.toString();
}
};
/**
* 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.
*
*/
var Type_AnyPointer_ImplicitMethodParameter = class extends require_src.Struct {
static _capnp = {
displayName: "implicitMethodParameter",
id: "baefc9120c56e274",
size: new require_src.ObjectSize(24, 1)
};
get parameterIndex() {
return require_src.utils.getUint16(10, this);
}
set parameterIndex(value) {
require_src.utils.setUint16(10, value, this);
}
toString() {
return "Type_AnyPointer_ImplicitMethodParameter_" + super.toString();
}
};
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.
*
*/
UNCONSTRAINED: 0,
/**
* This is actually a reference to a type parameter defined within this scope.
*
*/
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.
*
*/
IMPLICIT_METHOD_PARAMETER: 2
};
var Type_AnyPointer = class extends require_src.Struct {
static UNCONSTRAINED = Type_AnyPointer_Which.UNCONSTRAINED;
static PARAMETER = Type_AnyPointer_Which.PARAMETER;
static IMPLICIT_METHOD_PARAMETER = Type_AnyPointer_Which.IMPLICIT_METHOD_PARAMETER;
static _capnp = {
displayName: "anyPointer",
id: "c2573fe8a23e49f1",
size: new require_src.ObjectSize(24, 1)
};
/**
* 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() {
require_src.utils.testWhich("unconstrained", require_src.utils.getUint16(8, this), 0, this);
return require_src.utils.getAs(Type_AnyPointer_Unconstrained, this);
}
_initUnconstrained() {
require_src.utils.setUint16(8, 0, this);
return require_src.utils.getAs(Type_AnyPointer_Unconstrained, this);
}
get _isUnconstrained() {
return require_src.utils.getUint16(8, this) === 0;
}
set unconstrained(_) {
require_src.utils.setUint16(8, 0, this);
}
/**
* This is actually a reference to a type parameter defined within this scope.
*
*/
get parameter() {
require_src.utils.testWhich("parameter", require_src.utils.getUint16(8, this), 1, this);
return require_src.utils.getAs(Type_AnyPointer_Parameter, this);
}
_initParameter() {
require_src.utils.setUint16(8, 1, this);
return require_src.utils.getAs(Type_AnyPointer_Parameter, this);
}
get _isParameter() {
return require_src.utils.getUint16(8, this) === 1;
}
set parameter(_) {
require_src.utils.setUint16(8, 1, this);
}
/**
* 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() {
require_src.utils.testWhich("implicitMethodParameter", require_src.utils.getUint16(8, this), 2, this);
return require_src.utils.getAs(Type_AnyPointer_ImplicitMethodParameter, this);
}
_initImplicitMethodParameter() {
require_src.utils.setUint16(8, 2, this);
return require_src.utils.getAs(Type_AnyPointer_ImplicitMethodParameter, this);
}
get _isImplicitMethodParameter() {
return require_src.utils.getUint16(8, this) === 2;
}
set implicitMethodParameter(_) {
require_src.utils.setUint16(8, 2, this);
}
toString() {
return "Type_AnyPointer_" + super.toString();
}
which() {
return require_src.utils.getUint16(8, this);
}
};
const Type_Which = {
VOID: 0,
BOOL: 1,
INT8: 2,
INT16: 3,
INT32: 4,
INT64: 5,
UINT8: 6,
UINT16: 7,
UINT32: 8,
UINT64: 9,
FLOAT32: 10,
FLOAT64: 11,
TEXT: 12,
DATA: 13,
LIST: 14,
ENUM: 15,
STRUCT: 16,
INTERFACE: 17,
ANY_POINTER: 18
};
/**
* Represents a type expression.
*
*/
var Type = class extends require_src.Struct {
static VOID = Type_Which.VOID;
static BOOL = Type_Which.BOOL;
static INT8 = Type_Which.INT8;
static INT16 = Type_Which.INT16;
static INT32 = Type_Which.INT32;
static INT64 = Type_Which.INT64;
static UINT8 = Type_Which.UINT8;
static UINT16 = Type_Which.UINT16;
static UINT32 = Type_Which.UINT32;
static UINT64 = Type_Which.UINT64;
static FLOAT32 = Type_Which.FLOAT32;
static FLOAT64 = Type_Which.FLOAT64;
static TEXT = Type_Which.TEXT;
static DATA = Type_Which.DATA;
static LIST = Type_Which.LIST;
static ENUM = Type_Which.ENUM;
static STRUCT = Type_Which.STRUCT;
static INTERFACE = Type_Which.INTERFACE;
static ANY_POINTER = Type_Which.ANY_POINTER;
static _capnp = {
displayName: "Type",
id: "d07378ede1f9cc60",
size: new require_src.ObjectSize(24, 1)
};
get _isVoid() {
return require_src.utils.getUint16(0, this) === 0;
}
set void(_) {
require_src.utils.setUint16(0, 0, this);
}
get _isBool() {
return require_src.utils.getUint16(0, this) === 1;
}
set bool(_) {
require_src.utils.setUint16(0, 1, this);
}
get _isInt8() {
return require_src.utils.getUint16(0, this) === 2;
}
set int8(_) {
require_src.utils.setUint16(0, 2, this);
}
get _isInt16() {
return require_src.utils.getUint16(0, this) === 3;
}
set int16(_) {
require_src.utils.setUint16(0, 3, this);
}
get _isInt32() {
return require_src.utils.getUint16(0, this) === 4;
}
set int32(_) {
require_src.utils.setUint16(0, 4, this);
}
get _isInt64() {
return require_src.utils.getUint16(0, this) === 5;
}
set int64(_) {
require_src.utils.setUint16(0, 5, this);
}
get _isUint8() {
return require_src.utils.getUint16(0, this) === 6;
}
set uint8(_) {
require_src.utils.setUint16(0, 6, this);
}
get _isUint16() {
return require_src.utils.getUint16(0, this) === 7;
}
set uint16(_) {
require_src.utils.setUint16(0, 7, this);
}
get _isUint32() {
return require_src.utils.getUint16(0, this) === 8;
}
set uint32(_) {
require_src.utils.setUint16(0, 8, this);
}
get _isUint64() {
return require_src.utils.getUint16(0, this) === 9;
}
set uint64(_) {
require_src.utils.setUint16(0, 9, this);
}
get _isFloat32() {
return require_src.utils.getUint16(0, this) === 10;
}
set float32(_) {
require_src.utils.setUint16(0, 10, this);
}
get _isFloat64() {
return require_src.utils.getUint16(0, this) === 11;
}
set float64(_) {
require_src.utils.setUint16(0, 11, this);
}
get _isText() {
return require_src.utils.getUint16(0, this) === 12;
}
set text(_) {
require_src.utils.setUint16(0, 12, this);
}
get _isData() {
return require_src.utils.getUint16(0, this) === 13;
}
set data(_) {
require_src.utils.setUint16(0, 13, this);
}
get list() {
require_src.utils.testWhich("list", require_src.utils.getUint16(0, this), 14, this);
return require_src.utils.getAs(Type_List, this);
}
_initList() {
require_src.utils.setUint16(0, 14, this);
return require_src.utils.getAs(Type_List, this);
}