origLimit := syscall.OrigRlimitNofile()
	origRlimitNofile := syscall.GetInternalOrigRlimitNofile()

	if origLimit == nil {
		defer origRlimitNofile.Store(origLimit)
		origRlimitNofile.Store(&syscall.Rlimit{
			Cur: 1024,
			Max: 65536,
		})
	}

	// Get current process's nofile limit
	var lim syscall.Rlimit
	if err := syscall.Prlimit(0, syscall.RLIMIT_NOFILE, nil, &lim); err != nil {

// This file is called cgo_unix.go, but to allow syscalls-to-libc-based
// implementations to share the code, it does not use cgo directly.
// Instead of C.foo it uses _C_foo, which is defined in either
// cgo_unix_cgo.go or cgo_unix_syscall.go

//go:build !netgo && ((cgo && unix) || darwin)

package net

import (
	"context"
	"errors"
	"internal/bytealg"
	"net/netip"
	"syscall"
	"unsafe"

			*flagOutfile += ".exe"
		}
	}

	interpreter = *flagInterpreter

	if *flagBuildid == "" && ctxt.Target.IsOpenbsd() {
		// TODO(jsing): Remove once direct syscalls are no longer in use.
		// OpenBSD 6.7 onwards will not permit direct syscalls from a
		// dynamically linked binary unless it identifies the binary
		// contains a .note.go.buildid ELF note. See issue #36435.
		*flagBuildid = "go-openbsd"
	}

	checkm := gp.m

	// Save current syscall parameters, so m.winsyscall can be
	// used again if callback decide to make syscall.
	winsyscall := gp.m.winsyscall

	// entersyscall saves the caller's SP to allow the GC to trace the Go
	// stack. However, since we're returning to an earlier stack frame and
	// need to pair with the entersyscall() call made by cgocall, we must
	// save syscall* and let reentersyscall restore them.

| `minio_node_scanner_versions_scanned`      | Total number of object versions scanned since server start. |
| `minio_node_syscall_read_total`            | Total read SysCalls to the kernel. /proc/[pid]/io syscr.    |
| `minio_node_syscall_write_total`           | Total write SysCalls to the kernel. /proc/[pid]/io syscw.   |
| `minio_usage_last_activity_nano_seconds`   | Time elapsed (in nano seconds) since last scan activity.    |

# Bucket Metrics

		return strings.Contains(reason, "chan") || strings.Contains(reason, "sync") || strings.Contains(reason, "select")
	})
}

// computePprofSyscall returns a computePprofFunc that generates a syscall pprof-like
// profile (time spent in syscalls).
func computePprofSyscall() computePprofFunc {
	return makeComputePprofFunc(trace.GoSyscall, func(_ string) bool {
		return true
	})
}

| `minio_system_process_syscall_read_total`          | `counter` | Total read SysCalls to the kernel. /proc/[pid]/io syscr                                                        | `server` |
| `minio_system_process_syscall_write_total`         | `counter` | Total write SysCalls to the kernel. /proc/[pid]/io syscw                                                       | `server` |

	EvGoBlockNet        event.Type = 27 // goroutine blocks on network [timestamp, stack]
	EvGoSysCall         event.Type = 28 // syscall enter [timestamp, stack]
	EvGoSysExit         event.Type = 29 // syscall exit [timestamp, goroutine id, seq, real timestamp]
	EvGoSysBlock        event.Type = 30 // syscall blocks [timestamp]
	EvGoWaiting         event.Type = 31 // denotes that goroutine is blocked when tracing starts [timestamp, goroutine id]

	CLONE_IO             = 0x80000000 // Clone io context

	// Flags for the clone3() syscall.

	CLONE_CLEAR_SIGHAND = 0x100000000 // Clear any signal handler and reset to SIG_DFL.
	CLONE_INTO_CGROUP   = 0x200000000 // Clone into a specific cgroup given the right permissions.

	// Cloning flags intersect with CSIGNAL so can be used with unshare and clone3
	// syscalls only:

	CLONE_NEWTIME = 0x00000080 // New time namespace
)

				if g.lastRunnableTime != 0 {
					g.SchedWaitTime += ev.Time().Sub(g.lastRunnableTime)
					g.lastRunnableTime = 0
				}
			case GoSyscall:
				// Record syscall execution time and syscall block time as we transition out of syscall.
				if g.lastSyscallTime != 0 {
					if g.lastSyscallBlockTime != 0 {
						g.SyscallBlockTime += ev.Time().Sub(g.lastSyscallBlockTime)