"cmd/internal/src"
)

// A Slice reads from a slice of Tokens.
type Slice struct {
	tokens []Token
	base   *src.PosBase
	line   int
	pos    int
}

func NewSlice(base *src.PosBase, line int, tokens []Token) *Slice {
	return &Slice{
		tokens: tokens,
		base:   base,
		line:   line,
		pos:    -1, // Next will advance to zero.
	}
}

func (s *Slice) Next() ScanToken {
	s.pos++

				sb.Splice(testBytes0)
				buf.Write(testBytes0)

				sb.Reset()
				buf.Reset()
			},
		},
		{
			name: "Write/Splice, Reset, Write/Splice",
			run: func(sb runtime.Splice, buf *bytes.Buffer) {
				sb.Splice(testBytes0)
				buf.Write(testBytes0)

				sb.Reset()
				buf.Reset()

				sb.Splice(testBytes1)
				buf.Write(testBytes1)
			},
		},
		{
			name: "Write, Reset, Splice",

// splice wraps the splice system call. Since the current implementation
// only uses splice on sockets and pipes, the offset arguments are unused.
// splice returns int instead of int64, because callers never ask it to
// move more data in a single call than can fit in an int32.
func splice(out int, in int, max int, flags int) (int, error) {
	n, err := syscall.Splice(in, nil, out, nil, max, flags)
	return int(n), err
}

	// Streams benefit the most from the splice(2), non-streams are not even supported in old kernels
	// where splice(2) will just return EINVAL; newer kernels support non-streams like UDP, but I really
	// doubt that splice(2) could help non-streams, cuz they usually send small frames respectively
	// and one splice call would result in one frame.

      (OffPtr <typ.BytePtrPtr> [config.PtrSize] ptr)
      mem)

(SlicePtr x:(Load <t> ptr mem)) && t.IsSlice() => @x.Block (Load <t.Elem().PtrTo()> ptr mem)
(SliceLen x:(Load <t> ptr mem)) && t.IsSlice() => @x.Block (Load <typ.Int>
      (OffPtr <typ.IntPtr> [config.PtrSize] ptr)
      mem)
(SliceCap x:(Load <t> ptr mem)) && t.IsSlice() => @x.Block (Load <typ.Int>
      (OffPtr <typ.IntPtr> [2*config.PtrSize] ptr)
      mem)

// license that can be found in the LICENSE file.

package main

import "fmt"

type IntLike interface {
	~int | ~int64 | ~int32 | ~int16 | ~int8
}

func Reduce[T any, U any, Uslice ~[]U](function func(T, U) T, sequence Uslice, initial T) T {
	result := initial
	for _, x := range sequence {
		result = function(result, x)
	}
	return result
}

func min[T IntLike](x, y T) T {
	if x < y {
		return x
	}

        "full_name": "John Doe",
        "email": "******@****.***",
        "hashed_password": "fakehashedsecret",
        "disabled": False,
    },
    "alice": {
        "username": "alice",
        "full_name": "Alice Wonderson",
        "email": "alice@example.com",
        "hashed_password": "fakehashedsecret2",
        "disabled": True,
    },
}

app = FastAPI()


def fake_hash_password(password: str):

	okforbool[types.TBOOL] = true

	okforcap[types.TARRAY] = true
	okforcap[types.TCHAN] = true
	okforcap[types.TSLICE] = true

	ir.OKForConst[types.TBOOL] = true
	ir.OKForConst[types.TSTRING] = true

	okforlen[types.TARRAY] = true
	okforlen[types.TCHAN] = true
	okforlen[types.TMAP] = true
	okforlen[types.TSLICE] = true
	okforlen[types.TSTRING] = true

	okforeq[types.TPTR] = true
	okforeq[types.TUNSAFEPTR] = true

	return kindRType(pos, typ, types.TCHAN)
}

// sliceElemRType asserts that typ is a slice type, and returns an
// expression that yields the *runtime._type value representing typ's
// element type.
func sliceElemRType(pos src.XPos, typ *types.Type) ir.Node {
	base.AssertfAt(typ.IsSlice(), pos, "want slice type, have %v", typ)
	return TypePtrAt(pos, typ.Elem())
}

// proto-types for tests

type (
	_Basic     = int
	_Array     = [10]int
	_Slice     = []int
	_Struct    = struct{ f int }
	_Pointer   = *int
	_Func      = func(x int) string
	_Interface = interface{ m() int }
	_Map       = map[string]int
	_Chan      = chan int

	Basic     _Basic
	Array     _Array
	Slice     _Slice
	Struct    _Struct
	Pointer   _Pointer
	Func      _Func
	Interface _Interface