include "mlir/IR/PatternBase.td"

// Here, the element type can be any integer or float type. But, note that only
// 32 bit integers are supported for the values.
class GetScalarOfType<int value> : NativeCodeCall<
  "GetScalarOfType(getElementTypeOrSelf($0)," # value # ")">;

// Here, the element type can be any integer or float type. But, note that only
// 32 bit integers are supported for the values.

            "foo"
        )
    }

    @Test
    fun `can parse integers`() {
        val parser = combinator.integerLiteral

        // regular integers
        assertSuccess(parser("0"))
        assertSuccess(parser("5"))
        assertSuccess(parser("13"))
        assertSuccess(parser("1_000_000"))

        // unsigned integers
        assertSuccess(parser("0u"))
        assertSuccess(parser("5U"))

	VersionValue *string
}

// NamedResourcesIntSlice contains a slice of 64-bit integers.
type NamedResourcesIntSlice struct {
	// Ints is the slice of 64-bit integers.
	Ints []int64
}

// NamedResourcesStringSlice contains a slice of strings.
type NamedResourcesStringSlice struct {
	// Strings is the slice of strings.
	Strings []string
}

package binary

// This file implements "varint" encoding of 64-bit integers.
// The encoding is:
// - unsigned integers are serialized 7 bits at a time, starting with the
//   least significant bits
// - the most significant bit (msb) in each output byte indicates if there
//   is a continuation byte (msb = 1)
// - signed integers are mapped to unsigned integers using "zig-zag"

	VersionValue *string `json:"version,omitempty" protobuf:"bytes,10,opt,name=version"`
}

// NamedResourcesIntSlice contains a slice of 64-bit integers.
type NamedResourcesIntSlice struct {
	// Ints is the slice of 64-bit integers.
	//
	// +listType=atomic
	Ints []int64 `json:"ints" protobuf:"bytes,1,opt,name=ints"`
}

// NamedResourcesStringSlice contains a slice of strings.

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

// Package stringintconv defines an Analyzer that flags type conversions
// from integers to strings.
//
// # Analyzer stringintconv
//
// stringintconv: check for string(int) conversions
//
// This checker flags conversions of the form string(x) where x is an integer
// (but not byte or rune) type. Such conversions are discouraged because they

// multiplier.
//
// Args:
//   double_multiplier: The double-precision floating-point multiplier.
//
// Returns:
//   A quantized multiplier, represented as a pair of integers: the quantized
//   multiplier and the shift amount. The shift amount is the number of bits
//   that the quantized multiplier should be shifted to the right before being
//   used.

	end := unsafe.Pointer(&__stop___sancov_cntrs)

	// PC tables are arrays of ptr-sized integers representing pairs [PC,PCFlags] for every instrumented block.
	// The number of PCs and PCFlags is the same as the number of 8-bit counters. Each PC table entry has
	// the size of two ptr-sized integers. We allocate one more byte than what we actually need so that we can
	// get a pointer representing the end of the PC table array.

					}
					buf := bytes.NewBuffer(nil)
					if _, err = msgp.CopyToJSON(buf, bytes.NewReader(b)); err != nil {
						return err
					}

					dec := json.NewDecoder(buf)
					// Use number to preserve integers.
					dec.UseNumber()
					var htr map[string]interface{}
					if err = dec.Decode(&htr); err != nil {
						return err
					}
					ht[file.Name] = htr
				}
			}

// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

//go:build test_run

// Compute Fibonacci numbers with two goroutines
// that pass integers back and forth.  No actual
// concurrency, just threads and synchronization
// and foreign code on multiple pthreads.

package main

import (
	"runtime"
	"strconv"

	"cgostdio/stdio"
)