var _ = &Pointer[int]{}

// A Pointer is an atomic pointer of type *T. The zero value is a nil *T.
type Pointer[T any] struct {
	// Mention *T in a field to disallow conversion between Pointer types.
	// See go.dev/issue/56603 for more details.
	// Use *T, not T, to avoid spurious recursive type definition errors.
	_ [0]*T

	_ noCopy
	v unsafe.Pointer
}

// fixGlobalTypVarDecl changes the global Typ variable from an array to a slice
// (in types2 we use an array for efficiency, in go/types it's a slice and we
// cannot change that).
func fixGlobalTypVarDecl(f *ast.File) {
	ast.Inspect(f, func(n ast.Node) bool {
		switch n := n.(type) {
		case *ast.ValueSpec:
			// rewrite type Typ = [...]Type{...} to type Typ = []Type{...}
			if len(n.Names) == 1 && n.Names[0].Name == "Typ" && len(n.Values) == 1 {

    * 생성된 스키마는 이것이 `binary` "형식"의 `str`임을 명시합니다.
* `Decimal`:
    * 표준 파이썬의 `Decimal`.
    * 요청과 응답에서 `float`와 동일하게 다뤄집니다.
* 여기에서 모든 유효한 pydantic 데이터 자료형을 확인할 수 있습니다: <a href="https://docs.pydantic.dev/latest/usage/types/types/" class="external-link" target="_blank">Pydantic 데이터 자료형</a>.

## 예시

위의 몇몇 자료형을 매개변수로 사용하는 *경로 작동* 예시입니다.

=== "Python 3.10+"

    ```Python hl_lines="1  3  12-16"

}

type metricValue struct {
	Labels map[string]string
	Value  float64
}

// MetricValues - type to set metric values retrieved while loading metrics. A
// value of this type is passed to the `MetricsLoaderFn`.
type MetricValues struct {
	values      map[MetricName][]metricValue
	descriptors map[MetricName]MetricDescriptor
}

func newMetricValues(d map[MetricName]MetricDescriptor) MetricValues {

		"issue22200.go",  // types2 does not have constraints on stack size
		"issue22200b.go", // types2 does not have constraints on stack size
		"issue25507.go",  // types2 does not have constraints on stack size
		"issue20780.go",  // types2 does not have constraints on stack size
		"issue42058a.go", // types2 does not have constraints on channel element size

			return // invalid type
		}

		var V0 types.Type // integral type in the type set of V

		for _, vt := range vtypes {
			u, _ := vt.Underlying().(*types.Basic)
			if u != nil && u.Info()&types.IsInteger != 0 {
				switch u.Kind() {
				case types.Byte, types.Rune, types.UntypedRune:
					continue
				}
				V0 = vt
				break
			}
		}

		if V0 == nil {

		return newType != nil, IncompatibleAssign
	}
	// Vu is typed

	// x's type V and T have identical underlying types
	// and at least one of V or T is not a named type
	// and neither V nor T is a type parameter.
	if Identical(Vu, Tu) && (!hasName(V) || !hasName(T)) && Vp == nil && Tp == nil {
		return true, 0
	}

	// T is an interface type, but not a type parameter, and V implements T.

Taran Pelkey <******@****.***> 1716916456 -0400

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

// This file contains various functionality that is
// different between go/types and types2. Factoring
// out this code allows more of the rest of the code
// to be shared.

package types

import (
	"go/ast"
	"go/constant"
	"go/token"
)

const isTypes2 = false

	return t.Underlying()
}

// If t is not a type parameter, coreType returns the underlying type.
// If t is a type parameter, coreType returns the single underlying
// type of all types in its type set if it exists, or nil otherwise. If the
// type set contains only unrestricted and restricted channel types (with
// identical element types), the single underlying type is the restricted
// channel type if the restrictions are always the same, or nil otherwise.