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// This file was autogenerated by some hot garbage in the `uniffi` crate.
// Trust me, you don't want to mess with it!
// swiftlint:disable all
import Foundation
// Depending on the consumer's build setup, the low-level FFI code
// might be in a separate module, or it might be compiled inline into
// this module. This is a bit of light hackery to work with both.
#if canImport(MozillaRustComponents)
import MozillaRustComponents
#endif
fileprivate extension RustBuffer {
// Allocate a new buffer, copying the contents of a `UInt8` array.
init(bytes: [UInt8]) {
let rbuf = bytes.withUnsafeBufferPointer { ptr in
RustBuffer.from(ptr)
}
self.init(capacity: rbuf.capacity, len: rbuf.len, data: rbuf.data)
}
static func empty() -> RustBuffer {
RustBuffer(capacity: 0, len:0, data: nil)
}
static func from(_ ptr: UnsafeBufferPointer<UInt8>) -> RustBuffer {
try! rustCall { ffi_logins_rustbuffer_from_bytes(ForeignBytes(bufferPointer: ptr), $0) }
}
// Frees the buffer in place.
// The buffer must not be used after this is called.
func deallocate() {
try! rustCall { ffi_logins_rustbuffer_free(self, $0) }
}
}
fileprivate extension ForeignBytes {
init(bufferPointer: UnsafeBufferPointer<UInt8>) {
self.init(len: Int32(bufferPointer.count), data: bufferPointer.baseAddress)
}
}
// For every type used in the interface, we provide helper methods for conveniently
// lifting and lowering that type from C-compatible data, and for reading and writing
// values of that type in a buffer.
// Helper classes/extensions that don't change.
// Someday, this will be in a library of its own.
fileprivate extension Data {
init(rustBuffer: RustBuffer) {
self.init(
bytesNoCopy: rustBuffer.data!,
count: Int(rustBuffer.len),
deallocator: .none
)
}
}
// Define reader functionality. Normally this would be defined in a class or
// struct, but we use standalone functions instead in order to make external
// types work.
//
// With external types, one swift source file needs to be able to call the read
// method on another source file's FfiConverter, but then what visibility
// should Reader have?
// - If Reader is fileprivate, then this means the read() must also
// be fileprivate, which doesn't work with external types.
// - If Reader is internal/public, we'll get compile errors since both source
// files will try define the same type.
//
// Instead, the read() method and these helper functions input a tuple of data
fileprivate func createReader(data: Data) -> (data: Data, offset: Data.Index) {
(data: data, offset: 0)
}
// Reads an integer at the current offset, in big-endian order, and advances
// the offset on success. Throws if reading the integer would move the
// offset past the end of the buffer.
fileprivate func readInt<T: FixedWidthInteger>(_ reader: inout (data: Data, offset: Data.Index)) throws -> T {
let range = reader.offset..<reader.offset + MemoryLayout<T>.size
guard reader.data.count >= range.upperBound else {
throw UniffiInternalError.bufferOverflow
}
if T.self == UInt8.self {
let value = reader.data[reader.offset]
reader.offset += 1
return value as! T
}
var value: T = 0
let _ = withUnsafeMutableBytes(of: &value, { reader.data.copyBytes(to: $0, from: range)})
reader.offset = range.upperBound
return value.bigEndian
}
// Reads an arbitrary number of bytes, to be used to read
// raw bytes, this is useful when lifting strings
fileprivate func readBytes(_ reader: inout (data: Data, offset: Data.Index), count: Int) throws -> Array<UInt8> {
let range = reader.offset..<(reader.offset+count)
guard reader.data.count >= range.upperBound else {
throw UniffiInternalError.bufferOverflow
}
var value = [UInt8](repeating: 0, count: count)
value.withUnsafeMutableBufferPointer({ buffer in
reader.data.copyBytes(to: buffer, from: range)
})
reader.offset = range.upperBound
return value
}
// Reads a float at the current offset.
fileprivate func readFloat(_ reader: inout (data: Data, offset: Data.Index)) throws -> Float {
return Float(bitPattern: try readInt(&reader))
}
// Reads a float at the current offset.
fileprivate func readDouble(_ reader: inout (data: Data, offset: Data.Index)) throws -> Double {
return Double(bitPattern: try readInt(&reader))
}
// Indicates if the offset has reached the end of the buffer.
fileprivate func hasRemaining(_ reader: (data: Data, offset: Data.Index)) -> Bool {
return reader.offset < reader.data.count
}
// Define writer functionality. Normally this would be defined in a class or
// struct, but we use standalone functions instead in order to make external
// types work. See the above discussion on Readers for details.
fileprivate func createWriter() -> [UInt8] {
return []
}
fileprivate func writeBytes<S>(_ writer: inout [UInt8], _ byteArr: S) where S: Sequence, S.Element == UInt8 {
writer.append(contentsOf: byteArr)
}
// Writes an integer in big-endian order.
//
// Warning: make sure what you are trying to write
// is in the correct type!
fileprivate func writeInt<T: FixedWidthInteger>(_ writer: inout [UInt8], _ value: T) {
var value = value.bigEndian
withUnsafeBytes(of: &value) { writer.append(contentsOf: $0) }
}
fileprivate func writeFloat(_ writer: inout [UInt8], _ value: Float) {
writeInt(&writer, value.bitPattern)
}
fileprivate func writeDouble(_ writer: inout [UInt8], _ value: Double) {
writeInt(&writer, value.bitPattern)
}
// Protocol for types that transfer other types across the FFI. This is
// analogous to the Rust trait of the same name.
fileprivate protocol FfiConverter {
associatedtype FfiType
associatedtype SwiftType
static func lift(_ value: FfiType) throws -> SwiftType
static func lower(_ value: SwiftType) -> FfiType
static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> SwiftType
static func write(_ value: SwiftType, into buf: inout [UInt8])
}
// Types conforming to `Primitive` pass themselves directly over the FFI.
fileprivate protocol FfiConverterPrimitive: FfiConverter where FfiType == SwiftType { }
extension FfiConverterPrimitive {
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public static func lift(_ value: FfiType) throws -> SwiftType {
return value
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public static func lower(_ value: SwiftType) -> FfiType {
return value
}
}
// Types conforming to `FfiConverterRustBuffer` lift and lower into a `RustBuffer`.
// Used for complex types where it's hard to write a custom lift/lower.
fileprivate protocol FfiConverterRustBuffer: FfiConverter where FfiType == RustBuffer {}
extension FfiConverterRustBuffer {
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public static func lift(_ buf: RustBuffer) throws -> SwiftType {
var reader = createReader(data: Data(rustBuffer: buf))
let value = try read(from: &reader)
if hasRemaining(reader) {
throw UniffiInternalError.incompleteData
}
buf.deallocate()
return value
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public static func lower(_ value: SwiftType) -> RustBuffer {
var writer = createWriter()
write(value, into: &writer)
return RustBuffer(bytes: writer)
}
}
// An error type for FFI errors. These errors occur at the UniFFI level, not
// the library level.
fileprivate enum UniffiInternalError: LocalizedError {
case bufferOverflow
case incompleteData
case unexpectedOptionalTag
case unexpectedEnumCase
case unexpectedNullPointer
case unexpectedRustCallStatusCode
case unexpectedRustCallError
case unexpectedStaleHandle
case rustPanic(_ message: String)
public var errorDescription: String? {
switch self {
case .bufferOverflow: return "Reading the requested value would read past the end of the buffer"
case .incompleteData: return "The buffer still has data after lifting its containing value"
case .unexpectedOptionalTag: return "Unexpected optional tag; should be 0 or 1"
case .unexpectedEnumCase: return "Raw enum value doesn't match any cases"
case .unexpectedNullPointer: return "Raw pointer value was null"
case .unexpectedRustCallStatusCode: return "Unexpected RustCallStatus code"
case .unexpectedRustCallError: return "CALL_ERROR but no errorClass specified"
case .unexpectedStaleHandle: return "The object in the handle map has been dropped already"
case let .rustPanic(message): return message
}
}
}
fileprivate extension NSLock {
func withLock<T>(f: () throws -> T) rethrows -> T {
self.lock()
defer { self.unlock() }
return try f()
}
}
fileprivate let CALL_SUCCESS: Int8 = 0
fileprivate let CALL_ERROR: Int8 = 1
fileprivate let CALL_UNEXPECTED_ERROR: Int8 = 2
fileprivate let CALL_CANCELLED: Int8 = 3
fileprivate extension RustCallStatus {
init() {
self.init(
code: CALL_SUCCESS,
errorBuf: RustBuffer.init(
capacity: 0,
len: 0,
data: nil
)
)
}
}
private func rustCall<T>(_ callback: (UnsafeMutablePointer<RustCallStatus>) -> T) throws -> T {
let neverThrow: ((RustBuffer) throws -> Never)? = nil
return try makeRustCall(callback, errorHandler: neverThrow)
}
private func rustCallWithError<T, E: Swift.Error>(
_ errorHandler: @escaping (RustBuffer) throws -> E,
_ callback: (UnsafeMutablePointer<RustCallStatus>) -> T) throws -> T {
try makeRustCall(callback, errorHandler: errorHandler)
}
private func makeRustCall<T, E: Swift.Error>(
_ callback: (UnsafeMutablePointer<RustCallStatus>) -> T,
errorHandler: ((RustBuffer) throws -> E)?
) throws -> T {
uniffiEnsureLoginsInitialized()
var callStatus = RustCallStatus.init()
let returnedVal = callback(&callStatus)
try uniffiCheckCallStatus(callStatus: callStatus, errorHandler: errorHandler)
return returnedVal
}
private func uniffiCheckCallStatus<E: Swift.Error>(
callStatus: RustCallStatus,
errorHandler: ((RustBuffer) throws -> E)?
) throws {
switch callStatus.code {
case CALL_SUCCESS:
return
case CALL_ERROR:
if let errorHandler = errorHandler {
throw try errorHandler(callStatus.errorBuf)
} else {
callStatus.errorBuf.deallocate()
throw UniffiInternalError.unexpectedRustCallError
}
case CALL_UNEXPECTED_ERROR:
// When the rust code sees a panic, it tries to construct a RustBuffer
// with the message. But if that code panics, then it just sends back
// an empty buffer.
if callStatus.errorBuf.len > 0 {
throw UniffiInternalError.rustPanic(try FfiConverterString.lift(callStatus.errorBuf))
} else {
callStatus.errorBuf.deallocate()
throw UniffiInternalError.rustPanic("Rust panic")
}
case CALL_CANCELLED:
fatalError("Cancellation not supported yet")
default:
throw UniffiInternalError.unexpectedRustCallStatusCode
}
}
private func uniffiTraitInterfaceCall<T>(
callStatus: UnsafeMutablePointer<RustCallStatus>,
makeCall: () throws -> T,
writeReturn: (T) -> ()
) {
do {
try writeReturn(makeCall())
} catch let error {
callStatus.pointee.code = CALL_UNEXPECTED_ERROR
callStatus.pointee.errorBuf = FfiConverterString.lower(String(describing: error))
}
}
private func uniffiTraitInterfaceCallWithError<T, E>(
callStatus: UnsafeMutablePointer<RustCallStatus>,
makeCall: () throws -> T,
writeReturn: (T) -> (),
lowerError: (E) -> RustBuffer
) {
do {
try writeReturn(makeCall())
} catch let error as E {
callStatus.pointee.code = CALL_ERROR
callStatus.pointee.errorBuf = lowerError(error)
} catch {
callStatus.pointee.code = CALL_UNEXPECTED_ERROR
callStatus.pointee.errorBuf = FfiConverterString.lower(String(describing: error))
}
}
fileprivate final class UniffiHandleMap<T>: @unchecked Sendable {
// All mutation happens with this lock held, which is why we implement @unchecked Sendable.
private let lock = NSLock()
private var map: [UInt64: T] = [:]
private var currentHandle: UInt64 = 1
func insert(obj: T) -> UInt64 {
lock.withLock {
let handle = currentHandle
currentHandle += 1
map[handle] = obj
return handle
}
}
func get(handle: UInt64) throws -> T {
try lock.withLock {
guard let obj = map[handle] else {
throw UniffiInternalError.unexpectedStaleHandle
}
return obj
}
}
@discardableResult
func remove(handle: UInt64) throws -> T {
try lock.withLock {
guard let obj = map.removeValue(forKey: handle) else {
throw UniffiInternalError.unexpectedStaleHandle
}
return obj
}
}
var count: Int {
get {
map.count
}
}
}
// Public interface members begin here.
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
fileprivate struct FfiConverterInt64: FfiConverterPrimitive {
typealias FfiType = Int64
typealias SwiftType = Int64
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> Int64 {
return try lift(readInt(&buf))
}
public static func write(_ value: Int64, into buf: inout [UInt8]) {
writeInt(&buf, lower(value))
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
fileprivate struct FfiConverterBool : FfiConverter {
typealias FfiType = Int8
typealias SwiftType = Bool
public static func lift(_ value: Int8) throws -> Bool {
return value != 0
}
public static func lower(_ value: Bool) -> Int8 {
return value ? 1 : 0
}
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> Bool {
return try lift(readInt(&buf))
}
public static func write(_ value: Bool, into buf: inout [UInt8]) {
writeInt(&buf, lower(value))
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
fileprivate struct FfiConverterString: FfiConverter {
typealias SwiftType = String
typealias FfiType = RustBuffer
public static func lift(_ value: RustBuffer) throws -> String {
defer {
value.deallocate()
}
if value.data == nil {
return String()
}
let bytes = UnsafeBufferPointer<UInt8>(start: value.data!, count: Int(value.len))
return String(bytes: bytes, encoding: String.Encoding.utf8)!
}
public static func lower(_ value: String) -> RustBuffer {
return value.utf8CString.withUnsafeBufferPointer { ptr in
// The swift string gives us int8_t, we want uint8_t.
ptr.withMemoryRebound(to: UInt8.self) { ptr in
// The swift string gives us a trailing null byte, we don't want it.
let buf = UnsafeBufferPointer(rebasing: ptr.prefix(upTo: ptr.count - 1))
return RustBuffer.from(buf)
}
}
}
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> String {
let len: Int32 = try readInt(&buf)
return String(bytes: try readBytes(&buf, count: Int(len)), encoding: String.Encoding.utf8)!
}
public static func write(_ value: String, into buf: inout [UInt8]) {
let len = Int32(value.utf8.count)
writeInt(&buf, len)
writeBytes(&buf, value.utf8)
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
fileprivate struct FfiConverterData: FfiConverterRustBuffer {
typealias SwiftType = Data
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> Data {
let len: Int32 = try readInt(&buf)
return Data(try readBytes(&buf, count: Int(len)))
}
public static func write(_ value: Data, into buf: inout [UInt8]) {
let len = Int32(value.count)
writeInt(&buf, len)
writeBytes(&buf, value)
}
}
public protocol EncryptorDecryptor: AnyObject {
func decrypt(ciphertext: Data) throws -> Data
func encrypt(cleartext: Data) throws -> Data
}
open class EncryptorDecryptorImpl: EncryptorDecryptor, @unchecked Sendable {
fileprivate let pointer: UnsafeMutableRawPointer!
/// Used to instantiate a [FFIObject] without an actual pointer, for fakes in tests, mostly.
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public struct NoPointer {
public init() {}
}
// TODO: We'd like this to be `private` but for Swifty reasons,
// we can't implement `FfiConverter` without making this `required` and we can't
// make it `required` without making it `public`.
required public init(unsafeFromRawPointer pointer: UnsafeMutableRawPointer) {
self.pointer = pointer
}
// This constructor can be used to instantiate a fake object.
// - Parameter noPointer: Placeholder value so we can have a constructor separate from the default empty one that may be implemented for classes extending [FFIObject].
//
// - Warning:
// Any object instantiated with this constructor cannot be passed to an actual Rust-backed object. Since there isn't a backing [Pointer] the FFI lower functions will crash.
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public init(noPointer: NoPointer) {
self.pointer = nil
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func uniffiClonePointer() -> UnsafeMutableRawPointer {
return try! rustCall { uniffi_logins_fn_clone_encryptordecryptor(self.pointer, $0) }
}
// No primary constructor declared for this class.
deinit {
guard let pointer = pointer else {
return
}
try! rustCall { uniffi_logins_fn_free_encryptordecryptor(pointer, $0) }
}
open func decrypt(ciphertext: Data)throws -> Data {
return try FfiConverterData.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_encryptordecryptor_decrypt(self.uniffiClonePointer(),
FfiConverterData.lower(ciphertext),$0
)
})
}
open func encrypt(cleartext: Data)throws -> Data {
return try FfiConverterData.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_encryptordecryptor_encrypt(self.uniffiClonePointer(),
FfiConverterData.lower(cleartext),$0
)
})
}
}
// Magic number for the Rust proxy to call using the same mechanism as every other method,
// to free the callback once it's dropped by Rust.
private let IDX_CALLBACK_FREE: Int32 = 0
// Callback return codes
private let UNIFFI_CALLBACK_SUCCESS: Int32 = 0
private let UNIFFI_CALLBACK_ERROR: Int32 = 1
private let UNIFFI_CALLBACK_UNEXPECTED_ERROR: Int32 = 2
// Put the implementation in a struct so we don't pollute the top-level namespace
fileprivate struct UniffiCallbackInterfaceEncryptorDecryptor {
// Create the VTable using a series of closures.
// Swift automatically converts these into C callback functions.
//
// This creates 1-element array, since this seems to be the only way to construct a const
// pointer that we can pass to the Rust code.
static let vtable: [UniffiVTableCallbackInterfaceEncryptorDecryptor] = [UniffiVTableCallbackInterfaceEncryptorDecryptor(
decrypt: { (
uniffiHandle: UInt64,
ciphertext: RustBuffer,
uniffiOutReturn: UnsafeMutablePointer<RustBuffer>,
uniffiCallStatus: UnsafeMutablePointer<RustCallStatus>
) in
let makeCall = {
() throws -> Data in
guard let uniffiObj = try? FfiConverterTypeEncryptorDecryptor.handleMap.get(handle: uniffiHandle) else {
throw UniffiInternalError.unexpectedStaleHandle
}
return try uniffiObj.decrypt(
ciphertext: try FfiConverterData.lift(ciphertext)
)
}
let writeReturn = { uniffiOutReturn.pointee = FfiConverterData.lower($0) }
uniffiTraitInterfaceCallWithError(
callStatus: uniffiCallStatus,
makeCall: makeCall,
writeReturn: writeReturn,
lowerError: FfiConverterTypeLoginsApiError_lower
)
},
encrypt: { (
uniffiHandle: UInt64,
cleartext: RustBuffer,
uniffiOutReturn: UnsafeMutablePointer<RustBuffer>,
uniffiCallStatus: UnsafeMutablePointer<RustCallStatus>
) in
let makeCall = {
() throws -> Data in
guard let uniffiObj = try? FfiConverterTypeEncryptorDecryptor.handleMap.get(handle: uniffiHandle) else {
throw UniffiInternalError.unexpectedStaleHandle
}
return try uniffiObj.encrypt(
cleartext: try FfiConverterData.lift(cleartext)
)
}
let writeReturn = { uniffiOutReturn.pointee = FfiConverterData.lower($0) }
uniffiTraitInterfaceCallWithError(
callStatus: uniffiCallStatus,
makeCall: makeCall,
writeReturn: writeReturn,
lowerError: FfiConverterTypeLoginsApiError_lower
)
},
uniffiFree: { (uniffiHandle: UInt64) -> () in
let result = try? FfiConverterTypeEncryptorDecryptor.handleMap.remove(handle: uniffiHandle)
if result == nil {
print("Uniffi callback interface EncryptorDecryptor: handle missing in uniffiFree")
}
}
)]
}
private func uniffiCallbackInitEncryptorDecryptor() {
uniffi_logins_fn_init_callback_vtable_encryptordecryptor(UniffiCallbackInterfaceEncryptorDecryptor.vtable)
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public struct FfiConverterTypeEncryptorDecryptor: FfiConverter {
fileprivate static let handleMap = UniffiHandleMap<EncryptorDecryptor>()
typealias FfiType = UnsafeMutableRawPointer
typealias SwiftType = EncryptorDecryptor
public static func lift(_ pointer: UnsafeMutableRawPointer) throws -> EncryptorDecryptor {
return EncryptorDecryptorImpl(unsafeFromRawPointer: pointer)
}
public static func lower(_ value: EncryptorDecryptor) -> UnsafeMutableRawPointer {
guard let ptr = UnsafeMutableRawPointer(bitPattern: UInt(truncatingIfNeeded: handleMap.insert(obj: value))) else {
fatalError("Cast to UnsafeMutableRawPointer failed")
}
return ptr
}
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> EncryptorDecryptor {
let v: UInt64 = try readInt(&buf)
// The Rust code won't compile if a pointer won't fit in a UInt64.
// We have to go via `UInt` because that's the thing that's the size of a pointer.
let ptr = UnsafeMutableRawPointer(bitPattern: UInt(truncatingIfNeeded: v))
if (ptr == nil) {
throw UniffiInternalError.unexpectedNullPointer
}
return try lift(ptr!)
}
public static func write(_ value: EncryptorDecryptor, into buf: inout [UInt8]) {
// This fiddling is because `Int` is the thing that's the same size as a pointer.
// The Rust code won't compile if a pointer won't fit in a `UInt64`.
writeInt(&buf, UInt64(bitPattern: Int64(Int(bitPattern: lower(value)))))
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeEncryptorDecryptor_lift(_ pointer: UnsafeMutableRawPointer) throws -> EncryptorDecryptor {
return try FfiConverterTypeEncryptorDecryptor.lift(pointer)
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeEncryptorDecryptor_lower(_ value: EncryptorDecryptor) -> UnsafeMutableRawPointer {
return FfiConverterTypeEncryptorDecryptor.lower(value)
}
public protocol KeyManager: AnyObject {
func getKey() throws -> Data
}
open class KeyManagerImpl: KeyManager, @unchecked Sendable {
fileprivate let pointer: UnsafeMutableRawPointer!
/// Used to instantiate a [FFIObject] without an actual pointer, for fakes in tests, mostly.
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public struct NoPointer {
public init() {}
}
// TODO: We'd like this to be `private` but for Swifty reasons,
// we can't implement `FfiConverter` without making this `required` and we can't
// make it `required` without making it `public`.
required public init(unsafeFromRawPointer pointer: UnsafeMutableRawPointer) {
self.pointer = pointer
}
// This constructor can be used to instantiate a fake object.
// - Parameter noPointer: Placeholder value so we can have a constructor separate from the default empty one that may be implemented for classes extending [FFIObject].
//
// - Warning:
// Any object instantiated with this constructor cannot be passed to an actual Rust-backed object. Since there isn't a backing [Pointer] the FFI lower functions will crash.
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public init(noPointer: NoPointer) {
self.pointer = nil
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func uniffiClonePointer() -> UnsafeMutableRawPointer {
return try! rustCall { uniffi_logins_fn_clone_keymanager(self.pointer, $0) }
}
// No primary constructor declared for this class.
deinit {
guard let pointer = pointer else {
return
}
try! rustCall { uniffi_logins_fn_free_keymanager(pointer, $0) }
}
open func getKey()throws -> Data {
return try FfiConverterData.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_keymanager_get_key(self.uniffiClonePointer(),$0
)
})
}
}
// Put the implementation in a struct so we don't pollute the top-level namespace
fileprivate struct UniffiCallbackInterfaceKeyManager {
// Create the VTable using a series of closures.
// Swift automatically converts these into C callback functions.
//
// This creates 1-element array, since this seems to be the only way to construct a const
// pointer that we can pass to the Rust code.
static let vtable: [UniffiVTableCallbackInterfaceKeyManager] = [UniffiVTableCallbackInterfaceKeyManager(
getKey: { (
uniffiHandle: UInt64,
uniffiOutReturn: UnsafeMutablePointer<RustBuffer>,
uniffiCallStatus: UnsafeMutablePointer<RustCallStatus>
) in
let makeCall = {
() throws -> Data in
guard let uniffiObj = try? FfiConverterTypeKeyManager.handleMap.get(handle: uniffiHandle) else {
throw UniffiInternalError.unexpectedStaleHandle
}
return try uniffiObj.getKey(
)
}
let writeReturn = { uniffiOutReturn.pointee = FfiConverterData.lower($0) }
uniffiTraitInterfaceCallWithError(
callStatus: uniffiCallStatus,
makeCall: makeCall,
writeReturn: writeReturn,
lowerError: FfiConverterTypeLoginsApiError_lower
)
},
uniffiFree: { (uniffiHandle: UInt64) -> () in
let result = try? FfiConverterTypeKeyManager.handleMap.remove(handle: uniffiHandle)
if result == nil {
print("Uniffi callback interface KeyManager: handle missing in uniffiFree")
}
}
)]
}
private func uniffiCallbackInitKeyManager() {
uniffi_logins_fn_init_callback_vtable_keymanager(UniffiCallbackInterfaceKeyManager.vtable)
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public struct FfiConverterTypeKeyManager: FfiConverter {
fileprivate static let handleMap = UniffiHandleMap<KeyManager>()
typealias FfiType = UnsafeMutableRawPointer
typealias SwiftType = KeyManager
public static func lift(_ pointer: UnsafeMutableRawPointer) throws -> KeyManager {
return KeyManagerImpl(unsafeFromRawPointer: pointer)
}
public static func lower(_ value: KeyManager) -> UnsafeMutableRawPointer {
guard let ptr = UnsafeMutableRawPointer(bitPattern: UInt(truncatingIfNeeded: handleMap.insert(obj: value))) else {
fatalError("Cast to UnsafeMutableRawPointer failed")
}
return ptr
}
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> KeyManager {
let v: UInt64 = try readInt(&buf)
// The Rust code won't compile if a pointer won't fit in a UInt64.
// We have to go via `UInt` because that's the thing that's the size of a pointer.
let ptr = UnsafeMutableRawPointer(bitPattern: UInt(truncatingIfNeeded: v))
if (ptr == nil) {
throw UniffiInternalError.unexpectedNullPointer
}
return try lift(ptr!)
}
public static func write(_ value: KeyManager, into buf: inout [UInt8]) {
// This fiddling is because `Int` is the thing that's the same size as a pointer.
// The Rust code won't compile if a pointer won't fit in a `UInt64`.
writeInt(&buf, UInt64(bitPattern: Int64(Int(bitPattern: lower(value)))))
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeKeyManager_lift(_ pointer: UnsafeMutableRawPointer) throws -> KeyManager {
return try FfiConverterTypeKeyManager.lift(pointer)
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeKeyManager_lower(_ value: KeyManager) -> UnsafeMutableRawPointer {
return FfiConverterTypeKeyManager.lower(value)
}
public protocol LoginStoreProtocol: AnyObject {
func add(login: LoginEntry) throws -> Login
func addMany(logins: [LoginEntry]) throws -> [BulkResultEntry]
func addManyWithMeta(entriesWithMeta: [LoginEntryWithMeta]) throws -> [BulkResultEntry]
func addOrUpdate(login: LoginEntry) throws -> Login
func addWithMeta(entryWithMeta: LoginEntryWithMeta) throws -> Login
func count() throws -> Int64
func countByFormActionOrigin(formActionOrigin: String) throws -> Int64
func countByOrigin(origin: String) throws -> Int64
func delete(id: String) throws -> Bool
func deleteMany(ids: [String]) throws -> [Bool]
/**
* The `delete_undecryptable_records_for_remote_replacement` function locally deletes stored logins
* that cannot be decrypted and sets the last sync time to 0 so any existing server records can be downloaded
* and overwrite the locally deleted records.
*
* NB: This function was created to unblock iOS logins users who are unable to sync logins and should not be used
* outside of this use case.
*/
func deleteUndecryptableRecordsForRemoteReplacement() throws
func findLoginToUpdate(look: LoginEntry) throws -> Login?
func get(id: String) throws -> Login?
func getByBaseDomain(baseDomain: String) throws -> [Login]
func getCheckpoint() throws -> String?
func hasLoginsByBaseDomain(baseDomain: String) throws -> Bool
func isEmpty() throws -> Bool
func list() throws -> [Login]
func registerWithSyncManager()
func reset() throws
/**
* Run maintenance on the DB
*
* This is intended to be run during idle time and will take steps / to clean up / shrink the
* database.
*/
func runMaintenance() throws
func setCheckpoint(checkpoint: String) throws
func touch(id: String) throws
func update(id: String, login: LoginEntry) throws -> Login
/**
* Clear out locally stored logins data
*
* If sync is enabled, then we will try to recover the data on the next sync.
*
* The main reason to call this is when regenerating a new encryption key.
* In that case, there's no reason to keep around the local data since it can't be decrypted.
* Calling `wipe_local` is better than keeping around these un-decryptable logins, since we
* might be able to recover the data via sync.
*
* This is a no-op for freshly created databases, so it's safe to call this whenever a key is
* generated.
*/
func wipeLocal() throws
}
open class LoginStore: LoginStoreProtocol, @unchecked Sendable {
fileprivate let pointer: UnsafeMutableRawPointer!
/// Used to instantiate a [FFIObject] without an actual pointer, for fakes in tests, mostly.
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public struct NoPointer {
public init() {}
}
// TODO: We'd like this to be `private` but for Swifty reasons,
// we can't implement `FfiConverter` without making this `required` and we can't
// make it `required` without making it `public`.
required public init(unsafeFromRawPointer pointer: UnsafeMutableRawPointer) {
self.pointer = pointer
}
// This constructor can be used to instantiate a fake object.
// - Parameter noPointer: Placeholder value so we can have a constructor separate from the default empty one that may be implemented for classes extending [FFIObject].
//
// - Warning:
// Any object instantiated with this constructor cannot be passed to an actual Rust-backed object. Since there isn't a backing [Pointer] the FFI lower functions will crash.
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public init(noPointer: NoPointer) {
self.pointer = nil
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func uniffiClonePointer() -> UnsafeMutableRawPointer {
return try! rustCall { uniffi_logins_fn_clone_loginstore(self.pointer, $0) }
}
public convenience init(path: String, encdec: EncryptorDecryptor)throws {
let pointer =
try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_constructor_loginstore_new(
FfiConverterString.lower(path),
FfiConverterTypeEncryptorDecryptor_lower(encdec),$0
)
}
self.init(unsafeFromRawPointer: pointer)
}
deinit {
guard let pointer = pointer else {
return
}
try! rustCall { uniffi_logins_fn_free_loginstore(pointer, $0) }
}
open func add(login: LoginEntry)throws -> Login {
return try FfiConverterTypeLogin_lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_add(self.uniffiClonePointer(),
FfiConverterTypeLoginEntry_lower(login),$0
)
})
}
open func addMany(logins: [LoginEntry])throws -> [BulkResultEntry] {
return try FfiConverterSequenceTypeBulkResultEntry.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_add_many(self.uniffiClonePointer(),
FfiConverterSequenceTypeLoginEntry.lower(logins),$0
)
})
}
open func addManyWithMeta(entriesWithMeta: [LoginEntryWithMeta])throws -> [BulkResultEntry] {
return try FfiConverterSequenceTypeBulkResultEntry.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_add_many_with_meta(self.uniffiClonePointer(),
FfiConverterSequenceTypeLoginEntryWithMeta.lower(entriesWithMeta),$0
)
})
}
open func addOrUpdate(login: LoginEntry)throws -> Login {
return try FfiConverterTypeLogin_lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_add_or_update(self.uniffiClonePointer(),
FfiConverterTypeLoginEntry_lower(login),$0
)
})
}
open func addWithMeta(entryWithMeta: LoginEntryWithMeta)throws -> Login {
return try FfiConverterTypeLogin_lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_add_with_meta(self.uniffiClonePointer(),
FfiConverterTypeLoginEntryWithMeta_lower(entryWithMeta),$0
)
})
}
open func count()throws -> Int64 {
return try FfiConverterInt64.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_count(self.uniffiClonePointer(),$0
)
})
}
open func countByFormActionOrigin(formActionOrigin: String)throws -> Int64 {
return try FfiConverterInt64.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_count_by_form_action_origin(self.uniffiClonePointer(),
FfiConverterString.lower(formActionOrigin),$0
)
})
}
open func countByOrigin(origin: String)throws -> Int64 {
return try FfiConverterInt64.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_count_by_origin(self.uniffiClonePointer(),
FfiConverterString.lower(origin),$0
)
})
}
open func delete(id: String)throws -> Bool {
return try FfiConverterBool.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_delete(self.uniffiClonePointer(),
FfiConverterString.lower(id),$0
)
})
}
open func deleteMany(ids: [String])throws -> [Bool] {
return try FfiConverterSequenceBool.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_delete_many(self.uniffiClonePointer(),
FfiConverterSequenceString.lower(ids),$0
)
})
}
/**
* The `delete_undecryptable_records_for_remote_replacement` function locally deletes stored logins
* that cannot be decrypted and sets the last sync time to 0 so any existing server records can be downloaded
* and overwrite the locally deleted records.
*
* NB: This function was created to unblock iOS logins users who are unable to sync logins and should not be used
* outside of this use case.
*/
open func deleteUndecryptableRecordsForRemoteReplacement()throws {try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_delete_undecryptable_records_for_remote_replacement(self.uniffiClonePointer(),$0
)
}
}
open func findLoginToUpdate(look: LoginEntry)throws -> Login? {
return try FfiConverterOptionTypeLogin.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_find_login_to_update(self.uniffiClonePointer(),
FfiConverterTypeLoginEntry_lower(look),$0
)
})
}
open func get(id: String)throws -> Login? {
return try FfiConverterOptionTypeLogin.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_get(self.uniffiClonePointer(),
FfiConverterString.lower(id),$0
)
})
}
open func getByBaseDomain(baseDomain: String)throws -> [Login] {
return try FfiConverterSequenceTypeLogin.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_get_by_base_domain(self.uniffiClonePointer(),
FfiConverterString.lower(baseDomain),$0
)
})
}
open func getCheckpoint()throws -> String? {
return try FfiConverterOptionString.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_get_checkpoint(self.uniffiClonePointer(),$0
)
})
}
open func hasLoginsByBaseDomain(baseDomain: String)throws -> Bool {
return try FfiConverterBool.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_has_logins_by_base_domain(self.uniffiClonePointer(),
FfiConverterString.lower(baseDomain),$0
)
})
}
open func isEmpty()throws -> Bool {
return try FfiConverterBool.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_is_empty(self.uniffiClonePointer(),$0
)
})
}
open func list()throws -> [Login] {
return try FfiConverterSequenceTypeLogin.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_list(self.uniffiClonePointer(),$0
)
})
}
open func registerWithSyncManager() {try! rustCall() {
uniffi_logins_fn_method_loginstore_register_with_sync_manager(self.uniffiClonePointer(),$0
)
}
}
open func reset()throws {try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_reset(self.uniffiClonePointer(),$0
)
}
}
/**
* Run maintenance on the DB
*
* This is intended to be run during idle time and will take steps / to clean up / shrink the
* database.
*/
open func runMaintenance()throws {try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_run_maintenance(self.uniffiClonePointer(),$0
)
}
}
open func setCheckpoint(checkpoint: String)throws {try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_set_checkpoint(self.uniffiClonePointer(),
FfiConverterString.lower(checkpoint),$0
)
}
}
open func touch(id: String)throws {try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_touch(self.uniffiClonePointer(),
FfiConverterString.lower(id),$0
)
}
}
open func update(id: String, login: LoginEntry)throws -> Login {
return try FfiConverterTypeLogin_lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_update(self.uniffiClonePointer(),
FfiConverterString.lower(id),
FfiConverterTypeLoginEntry_lower(login),$0
)
})
}
/**
* Clear out locally stored logins data
*
* If sync is enabled, then we will try to recover the data on the next sync.
*
* The main reason to call this is when regenerating a new encryption key.
* In that case, there's no reason to keep around the local data since it can't be decrypted.
* Calling `wipe_local` is better than keeping around these un-decryptable logins, since we
* might be able to recover the data via sync.
*
* This is a no-op for freshly created databases, so it's safe to call this whenever a key is
* generated.
*/
open func wipeLocal()throws {try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_method_loginstore_wipe_local(self.uniffiClonePointer(),$0
)
}
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public struct FfiConverterTypeLoginStore: FfiConverter {
typealias FfiType = UnsafeMutableRawPointer
typealias SwiftType = LoginStore
public static func lift(_ pointer: UnsafeMutableRawPointer) throws -> LoginStore {
return LoginStore(unsafeFromRawPointer: pointer)
}
public static func lower(_ value: LoginStore) -> UnsafeMutableRawPointer {
return value.uniffiClonePointer()
}
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> LoginStore {
let v: UInt64 = try readInt(&buf)
// The Rust code won't compile if a pointer won't fit in a UInt64.
// We have to go via `UInt` because that's the thing that's the size of a pointer.
let ptr = UnsafeMutableRawPointer(bitPattern: UInt(truncatingIfNeeded: v))
if (ptr == nil) {
throw UniffiInternalError.unexpectedNullPointer
}
return try lift(ptr!)
}
public static func write(_ value: LoginStore, into buf: inout [UInt8]) {
// This fiddling is because `Int` is the thing that's the same size as a pointer.
// The Rust code won't compile if a pointer won't fit in a `UInt64`.
writeInt(&buf, UInt64(bitPattern: Int64(Int(bitPattern: lower(value)))))
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeLoginStore_lift(_ pointer: UnsafeMutableRawPointer) throws -> LoginStore {
return try FfiConverterTypeLoginStore.lift(pointer)
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeLoginStore_lower(_ value: LoginStore) -> UnsafeMutableRawPointer {
return FfiConverterTypeLoginStore.lower(value)
}
public protocol ManagedEncryptorDecryptorProtocol: AnyObject {
}
open class ManagedEncryptorDecryptor: ManagedEncryptorDecryptorProtocol, @unchecked Sendable {
fileprivate let pointer: UnsafeMutableRawPointer!
/// Used to instantiate a [FFIObject] without an actual pointer, for fakes in tests, mostly.
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public struct NoPointer {
public init() {}
}
// TODO: We'd like this to be `private` but for Swifty reasons,
// we can't implement `FfiConverter` without making this `required` and we can't
// make it `required` without making it `public`.
required public init(unsafeFromRawPointer pointer: UnsafeMutableRawPointer) {
self.pointer = pointer
}
// This constructor can be used to instantiate a fake object.
// - Parameter noPointer: Placeholder value so we can have a constructor separate from the default empty one that may be implemented for classes extending [FFIObject].
//
// - Warning:
// Any object instantiated with this constructor cannot be passed to an actual Rust-backed object. Since there isn't a backing [Pointer] the FFI lower functions will crash.
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public init(noPointer: NoPointer) {
self.pointer = nil
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func uniffiClonePointer() -> UnsafeMutableRawPointer {
return try! rustCall { uniffi_logins_fn_clone_managedencryptordecryptor(self.pointer, $0) }
}
public convenience init(keyManager: KeyManager) {
let pointer =
try! rustCall() {
uniffi_logins_fn_constructor_managedencryptordecryptor_new(
FfiConverterTypeKeyManager_lower(keyManager),$0
)
}
self.init(unsafeFromRawPointer: pointer)
}
deinit {
guard let pointer = pointer else {
return
}
try! rustCall { uniffi_logins_fn_free_managedencryptordecryptor(pointer, $0) }
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public struct FfiConverterTypeManagedEncryptorDecryptor: FfiConverter {
typealias FfiType = UnsafeMutableRawPointer
typealias SwiftType = ManagedEncryptorDecryptor
public static func lift(_ pointer: UnsafeMutableRawPointer) throws -> ManagedEncryptorDecryptor {
return ManagedEncryptorDecryptor(unsafeFromRawPointer: pointer)
}
public static func lower(_ value: ManagedEncryptorDecryptor) -> UnsafeMutableRawPointer {
return value.uniffiClonePointer()
}
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> ManagedEncryptorDecryptor {
let v: UInt64 = try readInt(&buf)
// The Rust code won't compile if a pointer won't fit in a UInt64.
// We have to go via `UInt` because that's the thing that's the size of a pointer.
let ptr = UnsafeMutableRawPointer(bitPattern: UInt(truncatingIfNeeded: v))
if (ptr == nil) {
throw UniffiInternalError.unexpectedNullPointer
}
return try lift(ptr!)
}
public static func write(_ value: ManagedEncryptorDecryptor, into buf: inout [UInt8]) {
// This fiddling is because `Int` is the thing that's the same size as a pointer.
// The Rust code won't compile if a pointer won't fit in a `UInt64`.
writeInt(&buf, UInt64(bitPattern: Int64(Int(bitPattern: lower(value)))))
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeManagedEncryptorDecryptor_lift(_ pointer: UnsafeMutableRawPointer) throws -> ManagedEncryptorDecryptor {
return try FfiConverterTypeManagedEncryptorDecryptor.lift(pointer)
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeManagedEncryptorDecryptor_lower(_ value: ManagedEncryptorDecryptor) -> UnsafeMutableRawPointer {
return FfiConverterTypeManagedEncryptorDecryptor.lower(value)
}
public protocol StaticKeyManagerProtocol: AnyObject {
}
open class StaticKeyManager: StaticKeyManagerProtocol, @unchecked Sendable {
fileprivate let pointer: UnsafeMutableRawPointer!
/// Used to instantiate a [FFIObject] without an actual pointer, for fakes in tests, mostly.
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public struct NoPointer {
public init() {}
}
// TODO: We'd like this to be `private` but for Swifty reasons,
// we can't implement `FfiConverter` without making this `required` and we can't
// make it `required` without making it `public`.
required public init(unsafeFromRawPointer pointer: UnsafeMutableRawPointer) {
self.pointer = pointer
}
// This constructor can be used to instantiate a fake object.
// - Parameter noPointer: Placeholder value so we can have a constructor separate from the default empty one that may be implemented for classes extending [FFIObject].
//
// - Warning:
// Any object instantiated with this constructor cannot be passed to an actual Rust-backed object. Since there isn't a backing [Pointer] the FFI lower functions will crash.
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public init(noPointer: NoPointer) {
self.pointer = nil
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func uniffiClonePointer() -> UnsafeMutableRawPointer {
return try! rustCall { uniffi_logins_fn_clone_statickeymanager(self.pointer, $0) }
}
public convenience init(key: String) {
let pointer =
try! rustCall() {
uniffi_logins_fn_constructor_statickeymanager_new(
FfiConverterString.lower(key),$0
)
}
self.init(unsafeFromRawPointer: pointer)
}
deinit {
guard let pointer = pointer else {
return
}
try! rustCall { uniffi_logins_fn_free_statickeymanager(pointer, $0) }
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public struct FfiConverterTypeStaticKeyManager: FfiConverter {
typealias FfiType = UnsafeMutableRawPointer
typealias SwiftType = StaticKeyManager
public static func lift(_ pointer: UnsafeMutableRawPointer) throws -> StaticKeyManager {
return StaticKeyManager(unsafeFromRawPointer: pointer)
}
public static func lower(_ value: StaticKeyManager) -> UnsafeMutableRawPointer {
return value.uniffiClonePointer()
}
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> StaticKeyManager {
let v: UInt64 = try readInt(&buf)
// The Rust code won't compile if a pointer won't fit in a UInt64.
// We have to go via `UInt` because that's the thing that's the size of a pointer.
let ptr = UnsafeMutableRawPointer(bitPattern: UInt(truncatingIfNeeded: v))
if (ptr == nil) {
throw UniffiInternalError.unexpectedNullPointer
}
return try lift(ptr!)
}
public static func write(_ value: StaticKeyManager, into buf: inout [UInt8]) {
// This fiddling is because `Int` is the thing that's the same size as a pointer.
// The Rust code won't compile if a pointer won't fit in a `UInt64`.
writeInt(&buf, UInt64(bitPattern: Int64(Int(bitPattern: lower(value)))))
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeStaticKeyManager_lift(_ pointer: UnsafeMutableRawPointer) throws -> StaticKeyManager {
return try FfiConverterTypeStaticKeyManager.lift(pointer)
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeStaticKeyManager_lower(_ value: StaticKeyManager) -> UnsafeMutableRawPointer {
return FfiConverterTypeStaticKeyManager.lower(value)
}
/**
* A login stored in the database
*/
public struct Login {
public var id: String
public var timesUsed: Int64
public var timeCreated: Int64
public var timeLastUsed: Int64
public var timePasswordChanged: Int64
public var origin: String
public var httpRealm: String?
public var formActionOrigin: String?
public var usernameField: String
public var passwordField: String
public var password: String
public var username: String
// Default memberwise initializers are never public by default, so we
// declare one manually.
public init(id: String, timesUsed: Int64, timeCreated: Int64, timeLastUsed: Int64, timePasswordChanged: Int64, origin: String, httpRealm: String?, formActionOrigin: String?, usernameField: String, passwordField: String, password: String, username: String) {
self.id = id
self.timesUsed = timesUsed
self.timeCreated = timeCreated
self.timeLastUsed = timeLastUsed
self.timePasswordChanged = timePasswordChanged
self.origin = origin
self.httpRealm = httpRealm
self.formActionOrigin = formActionOrigin
self.usernameField = usernameField
self.passwordField = passwordField
self.password = password
self.username = username
}
}
#if compiler(>=6)
extension Login: Sendable {}
#endif
extension Login: Equatable, Hashable {
public static func ==(lhs: Login, rhs: Login) -> Bool {
if lhs.id != rhs.id {
return false
}
if lhs.timesUsed != rhs.timesUsed {
return false
}
if lhs.timeCreated != rhs.timeCreated {
return false
}
if lhs.timeLastUsed != rhs.timeLastUsed {
return false
}
if lhs.timePasswordChanged != rhs.timePasswordChanged {
return false
}
if lhs.origin != rhs.origin {
return false
}
if lhs.httpRealm != rhs.httpRealm {
return false
}
if lhs.formActionOrigin != rhs.formActionOrigin {
return false
}
if lhs.usernameField != rhs.usernameField {
return false
}
if lhs.passwordField != rhs.passwordField {
return false
}
if lhs.password != rhs.password {
return false
}
if lhs.username != rhs.username {
return false
}
return true
}
public func hash(into hasher: inout Hasher) {
hasher.combine(id)
hasher.combine(timesUsed)
hasher.combine(timeCreated)
hasher.combine(timeLastUsed)
hasher.combine(timePasswordChanged)
hasher.combine(origin)
hasher.combine(httpRealm)
hasher.combine(formActionOrigin)
hasher.combine(usernameField)
hasher.combine(passwordField)
hasher.combine(password)
hasher.combine(username)
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public struct FfiConverterTypeLogin: FfiConverterRustBuffer {
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> Login {
return
try Login(
id: FfiConverterString.read(from: &buf),
timesUsed: FfiConverterInt64.read(from: &buf),
timeCreated: FfiConverterInt64.read(from: &buf),
timeLastUsed: FfiConverterInt64.read(from: &buf),
timePasswordChanged: FfiConverterInt64.read(from: &buf),
origin: FfiConverterString.read(from: &buf),
httpRealm: FfiConverterOptionString.read(from: &buf),
formActionOrigin: FfiConverterOptionString.read(from: &buf),
usernameField: FfiConverterString.read(from: &buf),
passwordField: FfiConverterString.read(from: &buf),
password: FfiConverterString.read(from: &buf),
username: FfiConverterString.read(from: &buf)
)
}
public static func write(_ value: Login, into buf: inout [UInt8]) {
FfiConverterString.write(value.id, into: &buf)
FfiConverterInt64.write(value.timesUsed, into: &buf)
FfiConverterInt64.write(value.timeCreated, into: &buf)
FfiConverterInt64.write(value.timeLastUsed, into: &buf)
FfiConverterInt64.write(value.timePasswordChanged, into: &buf)
FfiConverterString.write(value.origin, into: &buf)
FfiConverterOptionString.write(value.httpRealm, into: &buf)
FfiConverterOptionString.write(value.formActionOrigin, into: &buf)
FfiConverterString.write(value.usernameField, into: &buf)
FfiConverterString.write(value.passwordField, into: &buf)
FfiConverterString.write(value.password, into: &buf)
FfiConverterString.write(value.username, into: &buf)
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeLogin_lift(_ buf: RustBuffer) throws -> Login {
return try FfiConverterTypeLogin.lift(buf)
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeLogin_lower(_ value: Login) -> RustBuffer {
return FfiConverterTypeLogin.lower(value)
}
/**
* A login entry from the user, not linked to any database record.
* The add/update APIs input these.
*/
public struct LoginEntry {
public var origin: String
public var httpRealm: String?
public var formActionOrigin: String?
public var usernameField: String
public var passwordField: String
public var password: String
public var username: String
// Default memberwise initializers are never public by default, so we
// declare one manually.
public init(origin: String, httpRealm: String?, formActionOrigin: String?, usernameField: String, passwordField: String, password: String, username: String) {
self.origin = origin
self.httpRealm = httpRealm
self.formActionOrigin = formActionOrigin
self.usernameField = usernameField
self.passwordField = passwordField
self.password = password
self.username = username
}
}
#if compiler(>=6)
extension LoginEntry: Sendable {}
#endif
extension LoginEntry: Equatable, Hashable {
public static func ==(lhs: LoginEntry, rhs: LoginEntry) -> Bool {
if lhs.origin != rhs.origin {
return false
}
if lhs.httpRealm != rhs.httpRealm {
return false
}
if lhs.formActionOrigin != rhs.formActionOrigin {
return false
}
if lhs.usernameField != rhs.usernameField {
return false
}
if lhs.passwordField != rhs.passwordField {
return false
}
if lhs.password != rhs.password {
return false
}
if lhs.username != rhs.username {
return false
}
return true
}
public func hash(into hasher: inout Hasher) {
hasher.combine(origin)
hasher.combine(httpRealm)
hasher.combine(formActionOrigin)
hasher.combine(usernameField)
hasher.combine(passwordField)
hasher.combine(password)
hasher.combine(username)
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public struct FfiConverterTypeLoginEntry: FfiConverterRustBuffer {
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> LoginEntry {
return
try LoginEntry(
origin: FfiConverterString.read(from: &buf),
httpRealm: FfiConverterOptionString.read(from: &buf),
formActionOrigin: FfiConverterOptionString.read(from: &buf),
usernameField: FfiConverterString.read(from: &buf),
passwordField: FfiConverterString.read(from: &buf),
password: FfiConverterString.read(from: &buf),
username: FfiConverterString.read(from: &buf)
)
}
public static func write(_ value: LoginEntry, into buf: inout [UInt8]) {
FfiConverterString.write(value.origin, into: &buf)
FfiConverterOptionString.write(value.httpRealm, into: &buf)
FfiConverterOptionString.write(value.formActionOrigin, into: &buf)
FfiConverterString.write(value.usernameField, into: &buf)
FfiConverterString.write(value.passwordField, into: &buf)
FfiConverterString.write(value.password, into: &buf)
FfiConverterString.write(value.username, into: &buf)
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeLoginEntry_lift(_ buf: RustBuffer) throws -> LoginEntry {
return try FfiConverterTypeLoginEntry.lift(buf)
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeLoginEntry_lower(_ value: LoginEntry) -> RustBuffer {
return FfiConverterTypeLoginEntry.lower(value)
}
/**
* A login together with record fields, handed over to the store API; ie a login persisted
* elsewhere, useful for migrations
*/
public struct LoginEntryWithMeta {
public var entry: LoginEntry
public var meta: LoginMeta
// Default memberwise initializers are never public by default, so we
// declare one manually.
public init(entry: LoginEntry, meta: LoginMeta) {
self.entry = entry
self.meta = meta
}
}
#if compiler(>=6)
extension LoginEntryWithMeta: Sendable {}
#endif
extension LoginEntryWithMeta: Equatable, Hashable {
public static func ==(lhs: LoginEntryWithMeta, rhs: LoginEntryWithMeta) -> Bool {
if lhs.entry != rhs.entry {
return false
}
if lhs.meta != rhs.meta {
return false
}
return true
}
public func hash(into hasher: inout Hasher) {
hasher.combine(entry)
hasher.combine(meta)
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public struct FfiConverterTypeLoginEntryWithMeta: FfiConverterRustBuffer {
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> LoginEntryWithMeta {
return
try LoginEntryWithMeta(
entry: FfiConverterTypeLoginEntry.read(from: &buf),
meta: FfiConverterTypeLoginMeta.read(from: &buf)
)
}
public static func write(_ value: LoginEntryWithMeta, into buf: inout [UInt8]) {
FfiConverterTypeLoginEntry.write(value.entry, into: &buf)
FfiConverterTypeLoginMeta.write(value.meta, into: &buf)
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeLoginEntryWithMeta_lift(_ buf: RustBuffer) throws -> LoginEntryWithMeta {
return try FfiConverterTypeLoginEntryWithMeta.lift(buf)
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeLoginEntryWithMeta_lower(_ value: LoginEntryWithMeta) -> RustBuffer {
return FfiConverterTypeLoginEntryWithMeta.lower(value)
}
/**
* Login data specific to database records.
* The add_with_record API inputs this.
*/
public struct LoginMeta {
public var id: String
public var timesUsed: Int64
public var timeCreated: Int64
public var timeLastUsed: Int64
public var timePasswordChanged: Int64
// Default memberwise initializers are never public by default, so we
// declare one manually.
public init(id: String, timesUsed: Int64, timeCreated: Int64, timeLastUsed: Int64, timePasswordChanged: Int64) {
self.id = id
self.timesUsed = timesUsed
self.timeCreated = timeCreated
self.timeLastUsed = timeLastUsed
self.timePasswordChanged = timePasswordChanged
}
}
#if compiler(>=6)
extension LoginMeta: Sendable {}
#endif
extension LoginMeta: Equatable, Hashable {
public static func ==(lhs: LoginMeta, rhs: LoginMeta) -> Bool {
if lhs.id != rhs.id {
return false
}
if lhs.timesUsed != rhs.timesUsed {
return false
}
if lhs.timeCreated != rhs.timeCreated {
return false
}
if lhs.timeLastUsed != rhs.timeLastUsed {
return false
}
if lhs.timePasswordChanged != rhs.timePasswordChanged {
return false
}
return true
}
public func hash(into hasher: inout Hasher) {
hasher.combine(id)
hasher.combine(timesUsed)
hasher.combine(timeCreated)
hasher.combine(timeLastUsed)
hasher.combine(timePasswordChanged)
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public struct FfiConverterTypeLoginMeta: FfiConverterRustBuffer {
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> LoginMeta {
return
try LoginMeta(
id: FfiConverterString.read(from: &buf),
timesUsed: FfiConverterInt64.read(from: &buf),
timeCreated: FfiConverterInt64.read(from: &buf),
timeLastUsed: FfiConverterInt64.read(from: &buf),
timePasswordChanged: FfiConverterInt64.read(from: &buf)
)
}
public static func write(_ value: LoginMeta, into buf: inout [UInt8]) {
FfiConverterString.write(value.id, into: &buf)
FfiConverterInt64.write(value.timesUsed, into: &buf)
FfiConverterInt64.write(value.timeCreated, into: &buf)
FfiConverterInt64.write(value.timeLastUsed, into: &buf)
FfiConverterInt64.write(value.timePasswordChanged, into: &buf)
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeLoginMeta_lift(_ buf: RustBuffer) throws -> LoginMeta {
return try FfiConverterTypeLoginMeta.lift(buf)
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeLoginMeta_lower(_ value: LoginMeta) -> RustBuffer {
return FfiConverterTypeLoginMeta.lower(value)
}
// Note that we don't yet support `indirect` for enums.
/**
* A bulk insert result entry, returned by `add_many` and `add_many_with_meta`
*/
public enum BulkResultEntry {
case success(login: Login
)
case error(message: String
)
}
#if compiler(>=6)
extension BulkResultEntry: Sendable {}
#endif
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public struct FfiConverterTypeBulkResultEntry: FfiConverterRustBuffer {
typealias SwiftType = BulkResultEntry
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> BulkResultEntry {
let variant: Int32 = try readInt(&buf)
switch variant {
case 1: return .success(login: try FfiConverterTypeLogin.read(from: &buf)
)
case 2: return .error(message: try FfiConverterString.read(from: &buf)
)
default: throw UniffiInternalError.unexpectedEnumCase
}
}
public static func write(_ value: BulkResultEntry, into buf: inout [UInt8]) {
switch value {
case let .success(login):
writeInt(&buf, Int32(1))
FfiConverterTypeLogin.write(login, into: &buf)
case let .error(message):
writeInt(&buf, Int32(2))
FfiConverterString.write(message, into: &buf)
}
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeBulkResultEntry_lift(_ buf: RustBuffer) throws -> BulkResultEntry {
return try FfiConverterTypeBulkResultEntry.lift(buf)
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeBulkResultEntry_lower(_ value: BulkResultEntry) -> RustBuffer {
return FfiConverterTypeBulkResultEntry.lower(value)
}
extension BulkResultEntry: Equatable, Hashable {}
// Note that we don't yet support `indirect` for enums.
public enum LoginOrErrorMessage {
case login
case string
}
#if compiler(>=6)
extension LoginOrErrorMessage: Sendable {}
#endif
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public struct FfiConverterTypeLoginOrErrorMessage: FfiConverterRustBuffer {
typealias SwiftType = LoginOrErrorMessage
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> LoginOrErrorMessage {
let variant: Int32 = try readInt(&buf)
switch variant {
case 1: return .login
case 2: return .string
default: throw UniffiInternalError.unexpectedEnumCase
}
}
public static func write(_ value: LoginOrErrorMessage, into buf: inout [UInt8]) {
switch value {
case .login:
writeInt(&buf, Int32(1))
case .string:
writeInt(&buf, Int32(2))
}
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeLoginOrErrorMessage_lift(_ buf: RustBuffer) throws -> LoginOrErrorMessage {
return try FfiConverterTypeLoginOrErrorMessage.lift(buf)
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeLoginOrErrorMessage_lower(_ value: LoginOrErrorMessage) -> RustBuffer {
return FfiConverterTypeLoginOrErrorMessage.lower(value)
}
extension LoginOrErrorMessage: Equatable, Hashable {}
/**
* These are the errors returned by our public API.
*/
public enum LoginsApiError {
/**
* NSS not initialized.
*/
case NssUninitialized
/**
* NSS error during authentication
*/
case NssAuthenticationError(reason: String
)
/**
* error during authentication (in PrimaryPasswordAuthenticator)
*/
case AuthenticationError(reason: String
)
/**
* authentication has been cancelled.
*/
case AuthenticationCanceled
/**
* The login data supplied is invalid. The reason will indicate what's wrong with it.
*/
case InvalidRecord(reason: String
)
/**
* Asking to do something with a guid which doesn't exist.
*/
case NoSuchRecord(reason: String
)
/**
* Encryption key is missing.
*/
case MissingKey
/**
* Encryption key is not valid.
*/
case InvalidKey
/**
* encryption failed
*/
case EncryptionFailed(reason: String
)
/**
* decryption failed
*/
case DecryptionFailed(reason: String
)
/**
* An operation was interrupted at the request of the consuming app.
*/
case Interrupted(reason: String
)
/**
* Sync reported that authentication failed and the user should re-enter their FxA password.
*/
case SyncAuthInvalid(reason: String
)
/**
* something internal went wrong which doesn't have a public error value
* because the consuming app can not reasonably take any action to resolve it.
* The underlying error will have been logged and reported.
* (ideally would just be `Unexpected`, but that would be a breaking change)
*/
case UnexpectedLoginsApiError(reason: String
)
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public struct FfiConverterTypeLoginsApiError: FfiConverterRustBuffer {
typealias SwiftType = LoginsApiError
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> LoginsApiError {
let variant: Int32 = try readInt(&buf)
switch variant {
case 1: return .NssUninitialized
case 2: return .NssAuthenticationError(
reason: try FfiConverterString.read(from: &buf)
)
case 3: return .AuthenticationError(
reason: try FfiConverterString.read(from: &buf)
)
case 4: return .AuthenticationCanceled
case 5: return .InvalidRecord(
reason: try FfiConverterString.read(from: &buf)
)
case 6: return .NoSuchRecord(
reason: try FfiConverterString.read(from: &buf)
)
case 7: return .MissingKey
case 8: return .InvalidKey
case 9: return .EncryptionFailed(
reason: try FfiConverterString.read(from: &buf)
)
case 10: return .DecryptionFailed(
reason: try FfiConverterString.read(from: &buf)
)
case 11: return .Interrupted(
reason: try FfiConverterString.read(from: &buf)
)
case 12: return .SyncAuthInvalid(
reason: try FfiConverterString.read(from: &buf)
)
case 13: return .UnexpectedLoginsApiError(
reason: try FfiConverterString.read(from: &buf)
)
default: throw UniffiInternalError.unexpectedEnumCase
}
}
public static func write(_ value: LoginsApiError, into buf: inout [UInt8]) {
switch value {
case .NssUninitialized:
writeInt(&buf, Int32(1))
case let .NssAuthenticationError(reason):
writeInt(&buf, Int32(2))
FfiConverterString.write(reason, into: &buf)
case let .AuthenticationError(reason):
writeInt(&buf, Int32(3))
FfiConverterString.write(reason, into: &buf)
case .AuthenticationCanceled:
writeInt(&buf, Int32(4))
case let .InvalidRecord(reason):
writeInt(&buf, Int32(5))
FfiConverterString.write(reason, into: &buf)
case let .NoSuchRecord(reason):
writeInt(&buf, Int32(6))
FfiConverterString.write(reason, into: &buf)
case .MissingKey:
writeInt(&buf, Int32(7))
case .InvalidKey:
writeInt(&buf, Int32(8))
case let .EncryptionFailed(reason):
writeInt(&buf, Int32(9))
FfiConverterString.write(reason, into: &buf)
case let .DecryptionFailed(reason):
writeInt(&buf, Int32(10))
FfiConverterString.write(reason, into: &buf)
case let .Interrupted(reason):
writeInt(&buf, Int32(11))
FfiConverterString.write(reason, into: &buf)
case let .SyncAuthInvalid(reason):
writeInt(&buf, Int32(12))
FfiConverterString.write(reason, into: &buf)
case let .UnexpectedLoginsApiError(reason):
writeInt(&buf, Int32(13))
FfiConverterString.write(reason, into: &buf)
}
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeLoginsApiError_lift(_ buf: RustBuffer) throws -> LoginsApiError {
return try FfiConverterTypeLoginsApiError.lift(buf)
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
public func FfiConverterTypeLoginsApiError_lower(_ value: LoginsApiError) -> RustBuffer {
return FfiConverterTypeLoginsApiError.lower(value)
}
extension LoginsApiError: Equatable, Hashable {}
extension LoginsApiError: Foundation.LocalizedError {
public var errorDescription: String? {
String(reflecting: self)
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
fileprivate struct FfiConverterOptionString: FfiConverterRustBuffer {
typealias SwiftType = String?
public static func write(_ value: SwiftType, into buf: inout [UInt8]) {
guard let value = value else {
writeInt(&buf, Int8(0))
return
}
writeInt(&buf, Int8(1))
FfiConverterString.write(value, into: &buf)
}
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> SwiftType {
switch try readInt(&buf) as Int8 {
case 0: return nil
case 1: return try FfiConverterString.read(from: &buf)
default: throw UniffiInternalError.unexpectedOptionalTag
}
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
fileprivate struct FfiConverterOptionTypeLogin: FfiConverterRustBuffer {
typealias SwiftType = Login?
public static func write(_ value: SwiftType, into buf: inout [UInt8]) {
guard let value = value else {
writeInt(&buf, Int8(0))
return
}
writeInt(&buf, Int8(1))
FfiConverterTypeLogin.write(value, into: &buf)
}
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> SwiftType {
switch try readInt(&buf) as Int8 {
case 0: return nil
case 1: return try FfiConverterTypeLogin.read(from: &buf)
default: throw UniffiInternalError.unexpectedOptionalTag
}
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
fileprivate struct FfiConverterSequenceBool: FfiConverterRustBuffer {
typealias SwiftType = [Bool]
public static func write(_ value: [Bool], into buf: inout [UInt8]) {
let len = Int32(value.count)
writeInt(&buf, len)
for item in value {
FfiConverterBool.write(item, into: &buf)
}
}
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> [Bool] {
let len: Int32 = try readInt(&buf)
var seq = [Bool]()
seq.reserveCapacity(Int(len))
for _ in 0 ..< len {
seq.append(try FfiConverterBool.read(from: &buf))
}
return seq
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
fileprivate struct FfiConverterSequenceString: FfiConverterRustBuffer {
typealias SwiftType = [String]
public static func write(_ value: [String], into buf: inout [UInt8]) {
let len = Int32(value.count)
writeInt(&buf, len)
for item in value {
FfiConverterString.write(item, into: &buf)
}
}
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> [String] {
let len: Int32 = try readInt(&buf)
var seq = [String]()
seq.reserveCapacity(Int(len))
for _ in 0 ..< len {
seq.append(try FfiConverterString.read(from: &buf))
}
return seq
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
fileprivate struct FfiConverterSequenceTypeLogin: FfiConverterRustBuffer {
typealias SwiftType = [Login]
public static func write(_ value: [Login], into buf: inout [UInt8]) {
let len = Int32(value.count)
writeInt(&buf, len)
for item in value {
FfiConverterTypeLogin.write(item, into: &buf)
}
}
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> [Login] {
let len: Int32 = try readInt(&buf)
var seq = [Login]()
seq.reserveCapacity(Int(len))
for _ in 0 ..< len {
seq.append(try FfiConverterTypeLogin.read(from: &buf))
}
return seq
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
fileprivate struct FfiConverterSequenceTypeLoginEntry: FfiConverterRustBuffer {
typealias SwiftType = [LoginEntry]
public static func write(_ value: [LoginEntry], into buf: inout [UInt8]) {
let len = Int32(value.count)
writeInt(&buf, len)
for item in value {
FfiConverterTypeLoginEntry.write(item, into: &buf)
}
}
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> [LoginEntry] {
let len: Int32 = try readInt(&buf)
var seq = [LoginEntry]()
seq.reserveCapacity(Int(len))
for _ in 0 ..< len {
seq.append(try FfiConverterTypeLoginEntry.read(from: &buf))
}
return seq
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
fileprivate struct FfiConverterSequenceTypeLoginEntryWithMeta: FfiConverterRustBuffer {
typealias SwiftType = [LoginEntryWithMeta]
public static func write(_ value: [LoginEntryWithMeta], into buf: inout [UInt8]) {
let len = Int32(value.count)
writeInt(&buf, len)
for item in value {
FfiConverterTypeLoginEntryWithMeta.write(item, into: &buf)
}
}
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> [LoginEntryWithMeta] {
let len: Int32 = try readInt(&buf)
var seq = [LoginEntryWithMeta]()
seq.reserveCapacity(Int(len))
for _ in 0 ..< len {
seq.append(try FfiConverterTypeLoginEntryWithMeta.read(from: &buf))
}
return seq
}
}
#if swift(>=5.8)
@_documentation(visibility: private)
#endif
fileprivate struct FfiConverterSequenceTypeBulkResultEntry: FfiConverterRustBuffer {
typealias SwiftType = [BulkResultEntry]
public static func write(_ value: [BulkResultEntry], into buf: inout [UInt8]) {
let len = Int32(value.count)
writeInt(&buf, len)
for item in value {
FfiConverterTypeBulkResultEntry.write(item, into: &buf)
}
}
public static func read(from buf: inout (data: Data, offset: Data.Index)) throws -> [BulkResultEntry] {
let len: Int32 = try readInt(&buf)
var seq = [BulkResultEntry]()
seq.reserveCapacity(Int(len))
for _ in 0 ..< len {
seq.append(try FfiConverterTypeBulkResultEntry.read(from: &buf))
}
return seq
}
}
/**
* Check that key is still valid using the output of `create_canary`.
*/
public func checkCanary(canary: String, text: String, encryptionKey: String)throws -> Bool {
return try FfiConverterBool.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_func_check_canary(
FfiConverterString.lower(canary),
FfiConverterString.lower(text),
FfiConverterString.lower(encryptionKey),$0
)
})
}
/**
* Create a "canary" string, which can be used to test if the encryption
*/
public func createCanary(text: String, encryptionKey: String)throws -> String {
return try FfiConverterString.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_func_create_canary(
FfiConverterString.lower(text),
FfiConverterString.lower(encryptionKey),$0
)
})
}
/**
* We expose the crypto primitives on the namespace
* Create a new, random, encryption key.
*/
public func createKey()throws -> String {
return try FfiConverterString.lift(try rustCallWithError(FfiConverterTypeLoginsApiError_lift) {
uniffi_logins_fn_func_create_key($0
)
})
}
/**
* Create a LoginStore with StaticKeyManager by passing in a db path and a
* static key
*/
public func createLoginStoreWithStaticKeyManager(path: String, key: String) -> LoginStore {
return try! FfiConverterTypeLoginStore_lift(try! rustCall() {
uniffi_logins_fn_func_create_login_store_with_static_key_manager(
FfiConverterString.lower(path),
FfiConverterString.lower(key),$0
)
})
}
/**
* Similar to create_static_key_manager above, create a
* ManagedEncryptorDecryptor by passing in a KeyManager
*/
public func createManagedEncdec(keyManager: KeyManager) -> EncryptorDecryptor {
return try! FfiConverterTypeEncryptorDecryptor_lift(try! rustCall() {
uniffi_logins_fn_func_create_managed_encdec(
FfiConverterTypeKeyManager_lower(keyManager),$0
)
})
}
/**
* Utility function to create a StaticKeyManager to be used for the time
* being until support lands for [trait implementation of an UniFFI
* interface](https://mozilla.github.io/uniffi-rs/next/proc_macro/index.html#structs-implementing-traits)
* in UniFFI.
*/
public func createStaticKeyManager(key: String) -> KeyManager {
return try! FfiConverterTypeKeyManager_lift(try! rustCall() {
uniffi_logins_fn_func_create_static_key_manager(
FfiConverterString.lower(key),$0
)
})
}
private enum InitializationResult {
case ok
case contractVersionMismatch
case apiChecksumMismatch
}
// Use a global variable to perform the versioning checks. Swift ensures that
// the code inside is only computed once.
private let initializationResult: InitializationResult = {
// Get the bindings contract version from our ComponentInterface
let bindings_contract_version = 29
// Get the scaffolding contract version by calling the into the dylib
let scaffolding_contract_version = ffi_logins_uniffi_contract_version()
if bindings_contract_version != scaffolding_contract_version {
return InitializationResult.contractVersionMismatch
}
if (uniffi_logins_checksum_func_check_canary() != 3611) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_func_create_canary() != 45063) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_func_create_key() != 22260) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_func_create_login_store_with_static_key_manager() != 36971) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_func_create_managed_encdec() != 15704) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_func_create_static_key_manager() != 65197) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_encryptordecryptor_decrypt() != 55882) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_encryptordecryptor_encrypt() != 43263) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_keymanager_get_key() != 62087) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_add() != 62811) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_add_many() != 3267) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_add_many_with_meta() != 37365) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_add_or_update() != 37950) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_add_with_meta() != 34738) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_count() != 59175) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_count_by_form_action_origin() != 11815) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_count_by_origin() != 37630) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_delete() != 44678) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_delete_many() != 14564) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_delete_undecryptable_records_for_remote_replacement() != 23503) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_find_login_to_update() != 62416) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_get() != 49975) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_get_by_base_domain() != 29790) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_get_checkpoint() != 4346) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_has_logins_by_base_domain() != 20011) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_is_empty() != 27766) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_list() != 58635) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_register_with_sync_manager() != 7518) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_reset() != 63814) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_run_maintenance() != 64480) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_set_checkpoint() != 62504) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_touch() != 37362) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_update() != 29794) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_method_loginstore_wipe_local() != 2650) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_constructor_loginstore_new() != 9176) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_constructor_managedencryptordecryptor_new() != 21280) {
return InitializationResult.apiChecksumMismatch
}
if (uniffi_logins_checksum_constructor_statickeymanager_new() != 3408) {
return InitializationResult.apiChecksumMismatch
}
uniffiCallbackInitEncryptorDecryptor()
uniffiCallbackInitKeyManager()
return InitializationResult.ok
}()
// Make the ensure init function public so that other modules which have external type references to
// our types can call it.
public func uniffiEnsureLoginsInitialized() {
switch initializationResult {
case .ok:
break
case .contractVersionMismatch:
fatalError("UniFFI contract version mismatch: try cleaning and rebuilding your project")
case .apiChecksumMismatch:
fatalError("UniFFI API checksum mismatch: try cleaning and rebuilding your project")
}
}
// swiftlint:enable all