//
		// TODO: Confirm that the current cap of maximumSeats allow us to
		//   achieve the above.
		if finalSeats > maxSeats {
			finalSeats = maxSeats
		}
		additionalLatency = finalWork.DurationPerSeat(float64(finalSeats))
	}

	return WorkEstimate{
		InitialSeats:      1,
		FinalSeats:        finalSeats,
		AdditionalLatency: additionalLatency,
	}
}

type WorkEstimate struct {
	// InitialSeats is the number of seats occupied while the server is
	// executing this request.
	InitialSeats uint64

	// FinalSeats is the number of seats occupied at the end,
	// during the AdditionalLatency.
	FinalSeats uint64

	// AdditionalLatency specifies the additional duration the seats allocated
	// to this request must be reserved after the given request had finished.

		}
	}

	newRequest := func(initialSeats, finalSeats uint64, additionalLatency time.Duration) *request {
		return &request{workEstimate: qs.completeWorkEstimate(&fcrequest.WorkEstimate{
			InitialSeats:      initialSeats,
			FinalSeats:        finalSeats,
			AdditionalLatency: additionalLatency,
		})}
	}
	arrival := []*request{
		newRequest(1, 3, time.Second),

		"FlowSchemaName",      // 2
		"QueueIndex",          // 3
		"RequestIndexInQueue", // 4
		"FlowDistingsher",     // 5
		"ArriveTime",          // 6
		"InitialSeats",        // 7
		"FinalSeats",          // 8
		"AdditionalLatency",   // 9
		"StartTime",           // 10
	}))
	if includeRequestDetails {
		continueLine(tabWriter)
		tabPrint(tabWriter, rowForHeaders([]string{
			"UserName",    // 11

}

func (qs *queueSet) computeFinalWork(we *fcrequest.WorkEstimate) fcrequest.SeatSeconds {
	return fcrequest.SeatsTimesDuration(float64(we.FinalSeats), we.AdditionalLatency)
}

func (q *queue) dumpLocked(includeDetails bool) debug.QueueDump {
	waitingDigest := make([]debug.RequestDump, 0, q.requestsWaiting.Length())
	q.requestsWaiting.Walk(func(r *request) bool {