// The hardware is big-endian, so we need to reverse the order of the bytes.
        return Long.reverseBytes(bigEndian);
      }

      @Override
      public void putLongLittleEndian(byte[] array, int offset, long value) {
        // Reverse the order of the bytes before storing, since we're on big-endian hardware.
        long littleEndianValue = Long.reverseBytes(value);

    auto interface_name = GetInterFaceName(func);
    if (!interface_name.has_value()) continue;

    auto target = GetTargetAnnotation(func);
    if (!target.has_value()) {
      func.emitError("we cannot get hardware info for this function.");
      signalPassFailure();
    }

    float total_cost = GetCostForFunc(&func, *target);
    OpBuilder builder(func);
    UpdateCost(func, total_cost, &builder);
  }
}

	_ = *empty1p    // ERROR "nil check"
}

func fx10k() *[10000]int

var b bool

func f3(x *[10000]int) {
	// Using a huge type and huge offsets so the compiler
	// does not expect the memory hardware to fault.
	_ = x[9999] // ERROR "nil check"

	for {
		if x[9999] != 0 { // ERROR "nil check"
			break
		}
	}

	x = fx10k()
	_ = x[9999] // ERROR "nil check"
	if b {

  auto from_type = from->GetTypeId();
  auto to_type = GetTypeId();
  if (from_type == to_type) return 0.0f;

  // TODO(renjieliu): Implement a better version for different hardware cases.
  return buffer_size * kCrossHardwareTransferPerByteCost / 8.0 +
         kCrossHardwareTransferFixedCost;
}

namespace {
// GPU
constexpr float kGPUArithmeticUnitCost = 0.2;

		}
		// Not compatible with topology when number of sockets are more than number of NUMA nodes.
		if topology.NumSockets > topology.NumNUMANodes {
			return fmt.Errorf("Align by socket is not compatible with hardware where number of sockets are more than number of NUMA")
		}
	}
	return nil

			// SIGTRAP on something other than INT 3.
			c.set_sigcode(_SI_USER)
		}

	case _SIGSEGV:
		// x86-64 has 48-bit virtual addresses. The top 16 bits must echo bit 47.
		// The hardware delivers a different kind of fault for a malformed address
		// than it does for an attempt to access a valid but unmapped address.
		// OS X 10.9.2 mishandles the malformed address case, making it look like

> NOTE:  While MinIO does not implement an upper boundary on buckets, your cluster's hardware has natural limits that depend on the workload and its scaling patterns. We strongly recommend [MinIO SUBNET](https://min.io/pricing) for architecture and sizing guidance for your production use case.

// is preserved.
// ====================================================
//
// __ieee754_sqrt(x)
// Return correctly rounded sqrt.
//           -----------------------------------------
//           | Use the hardware sqrt if you have one |
//           -----------------------------------------
// Method:
//   Bit by bit method using integer arithmetic. (Slow, but portable)
//   1. Normalization

}

// float64 -sw-> int64 -hw-> float64
func toint64sw(f float64) float64 {
	i, ok := F64toint(math.Float64bits(f))
	if !ok {
		// There's no right answer for out of range.
		// Match the hardware to pass the test.
		i = int64(f)
	}
	return float64(i)
}

// float64 -hw-> int64 -sw-> float64
func fromint64sw(f float64) float64 {
	return math.Float64frombits(Fintto64(int64(f)))
}

	if len(name) >= IFNAMSIZ {
		return nil, EINVAL
	}

	var ifr ifreq
	copy(ifr.Ifrn[:], name)

	return &Ifreq{raw: ifr}, nil
}

// TODO(mdlayher): get/set methods for hardware address sockaddr, char array, etc.

// Name returns the interface name associated with the Ifreq.
func (ifr *Ifreq) Name() string {
	return ByteSliceToString(ifr.raw.Ifrn[:])
}