row.new('Resource Usage')
    + row.withPanels([
      panels.timeSeries.bytes('Memory Usage', queries.goMemoryUsage, 'Memory usage of each running instance'),
      panels.timeSeries.allocations('Memory Allocations', queries.goAllocations, 'Details about memory allocations'),
      panels.timeSeries.base('CPU Usage', queries.cpuUsage, 'CPU usage of each running instance'),

		t.Run(name, func(t *testing.T) {
			var actualModel Model
			for _, resources := range tc.resources {
				AddResources(&actualModel, resources)
			}
			for _, allocation := range tc.allocations {
				AddAllocation(&actualModel, allocation)
			}

			require.Equal(t, tc.expectModel, actualModel)
		})
	}

}

func TestController(t *testing.T) {
	filterAny := &resourceapi.NamedResourcesFilter{

 */

/** @file
 *  Memory management functions (user interface).
 *  Two versions of memory allocation/deallocation are available.
 *  If compiled with MEMTRACE defined, CUnit keeps track of all
 *  system allocations & deallocations.  The memory record can
 *  then be reported using CU_CREATE_MEMORY_REPORT.  Otherwise,
 *  standard system memory allocation is used without tracing.
 */
/** @addtogroup Framework
 * @{
 */

		}
	}

	throw("checkptr: pointer arithmetic result points to invalid allocation")
}

// checkptrBase returns the base address for the allocation containing
// the address p.
//
// Importantly, if p1 and p2 point into the same variable, then
// checkptrBase(p1) == checkptrBase(p2). However, the converse/inverse
// is not necessarily true as allocations can have trailing padding,

	// range allocator to do node CIDR range allocations.
	RangeAllocatorType CIDRAllocatorType = "RangeAllocator"
	// CloudAllocatorType is the allocator that uses cloud platform
	// support to do node CIDR range allocations.
	CloudAllocatorType CIDRAllocatorType = "CloudAllocator"
	// IPAMFromClusterAllocatorType uses the ipam controller sync'ing the node
	// CIDR range allocations from the cluster to the cloud.

 * this class separates _allocations_ from _streams_. An allocation is created by a call, used for
 * one or more streams, and then released. An allocated connection won't be stolen by other calls
 * while a redirect or authorization challenge is being handled.
 *
 * When the maximum concurrent streams limit is reduced, some allocations will be rescinded.

)

// Repair is a controller loop that periodically examines all service ClusterIP allocations
// and logs any errors, and then sets the compacted and accurate list of all allocated IPs.
//
// Handles:
// * Duplicate ClusterIP assignments caused by operator action or undetected race conditions
// * ClusterIPs that do not match the currently configured range
// * Allocations to services that were not actually created due to a crash or powerloss

	// Check that underlying array doesn't straddle multiple heap objects.
	// unsafestring64 has already checked for overflow.
	if checkptrStraddles(ptr, uintptr(len64)) {
		throw("checkptr: unsafe.String result straddles multiple allocations")
	}
}

func panicunsafestringlen() {
	panic(errorString("unsafe.String: len out of range"))
}

func panicunsafestringnilptr() {
	panic(errorString("unsafe.String: ptr is nil and len is not zero"))
}

	h.Reset()

	if _, err := h.Write(s); err != nil {
		panic(err) // Write() on hash never fails
	}
	key := toString(h.Sum(nil)) // skip base64 encoding to save an allocation
	c.hashPool.Put(h)

	return key
}

// toString performs unholy acts to avoid allocations
func toString(b []byte) string {
	// unsafe.SliceData relies on cap whereas we want to rely on len
	if len(b) == 0 {
		return ""
	}

}

// runOnce verifies the state of the port allocations and returns an error if an unrecoverable problem occurs.
func (c *Repair) runOnce() error {
	return retry.RetryOnConflict(retry.DefaultBackoff, func() error {
		err := c.doRunOnce()
		if err != nil {
			nodePortRepairReconcileErrors.Inc()
		}
		return err
	})
}

// doRunOnce verifies the state of the port allocations and returns an error if an unrecoverable problem occurs.