// the order of the scalar field. Elements in the Montgomery domain take the
	// form a×R and p256OrdMul calculates (a × b × R⁻¹) mod n. RR is R in the
	// domain, or R×R mod n, thus p256OrdMul(x, RR) gives x×R, i.e. converts x
	// into the Montgomery domain.
	RR := &p256OrdElement{0x83244c95be79eea2, 0x4699799c49bd6fa6,
		0x2845b2392b6bec59, 0x66e12d94f3d95620}

	p256OrdMul(_1, x, RR)      // _1

namespace tfcompile {

const char kUsageHeader[] =
    "tfcompile performs ahead-of-time compilation of a TensorFlow graph,\n"
    "resulting in an object file compiled for your target architecture, and a\n"
    "header file that gives access to the functionality in the object file.\n"
    "A typical invocation looks like this:\n"
    "\n"
    "   $ tfcompile --graph=mygraph.pb --config=myfile.pbtxt "
    "--cpp_class=\"mynamespace::MyComputation\"\n"

type Set[T constraints.Ordered] struct {
	items []T
}

// NewPresorted creates a new Set with the given items.
// If items is not sorted or contains duplicates, this gives undefined behavior; use New instead.
func NewPresorted[T constraints.Ordered](items ...T) Set[T] {
	return Set[T]{items: items}
}

// New creates a new Set with the given items.
// Duplicates are removed
func New[T constraints.Ordered](items ...T) Set[T] {

		panic("leafCounts[maxBits][maxBits] != n")
	}

	bitCount := h.bitCount[:maxBits+1]
	bits := 1
	counts := &leafCounts[maxBits]
	for level := maxBits; level > 0; level-- {
		// chain.leafCount gives the number of literals requiring at least "bits"
		// bits to encode.
		bitCount[bits] = counts[level] - counts[level-1]
		bits++
	}
	return bitCount
}

import javax.annotation.Nullable;

/**
 * Details about an artifact resolution query. This is used whenever repository
 * content filtering is in place.
 * <p></p>
 * This interface gives access to the details of the artifact query. There are two
 * cases when filtering can be called:
 * <p></p>
 * <ul>
 *     <li>when looking for a specific module version, for example org:foo:1.0</li>

    /**
     * Applies given action for each dependency.
     * An instance of {@link DependencyResult} is passed as parameter to the action.
     *
     * @param action - action that is applied for each dependency
     */
    void allDependencies(Action<? super DependencyResult> action);

    /**
     * Applies given closure for each dependency.

And when you return a `Response`, **FastAPI** will pass it directly.

It won't do any data conversion with Pydantic models, it won't convert the contents to any type, etc.

This gives you a lot of flexibility. You can return any data type, override any data declaration or validation, etc.

## Using the `jsonable_encoder` in a `Response`

	// IstioVersion for the Istio sidecar.
	IstioVersion string
	// IP is the requester's ip address
	IP string
	// rawBody gives a map of all key/values in the body of the response.
	rawBody         map[string]string
	RequestHeaders  http.Header
	ResponseHeaders http.Header
}

// Count occurrences of the given text within the body of this response.
func (r Response) Count(text string) int {
	return strings.Count(r.RawContent, text)
}

import (
	"sort"

	structuralschema "k8s.io/apiextensions-apiserver/pkg/apiserver/schema"
	"k8s.io/apimachinery/pkg/apis/meta/v1/unstructured"
	"k8s.io/apimachinery/pkg/util/validation/field"
)

// CoerceOptions gives the ability to ReturnUnknownFieldPaths for fields
// unrecognized by the schema or DropInvalidFields for fields that are a part
// of the schema, but are malformed.
type CoerceOptions struct {

    The most complex problem is building an authentication/authorization provider like those, but **FastAPI** gives you the tools to do it easily, while doing the heavy lifting for you.

## **FastAPI** utilities