// Partition addresses into two sets: ones with a known object file, and ones without.
	var addrs, unprocessed []uint64
	for addr, info := range addrMap {
		if info.obj != nil {
			addrs = append(addrs, addr)
		} else {
			unprocessed = append(unprocessed, addr)
		}
	}
	sort.Slice(addrs, func(i, j int) bool { return addrs[i] < addrs[j] })

// shrink this in the future.
const maxArgs = 6

// timedEventArgs is an array that is able to hold the arguments for any
// timed event.
type timedEventArgs [maxArgs - 1]uint64

// baseEvent is the basic unprocessed event. This serves as a common
// fundamental data structure across.
type baseEvent struct {
	typ  event.Type
	time Time
	args timedEventArgs
}

    private DaemonsState lastDaemonsState = new DaemonsState(0, 0)
    private final Map<Long, DaemonsState> pastStateChanges = new LinkedHashMap<Long, DaemonsState>() // processed changes
    private final Queue<Holder> changeQueue = new LinkedBlockingQueue() // unprocessed changes

    private final ManagedExecutor executor
    private boolean stop = false

    private AssertionError timeoutError

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

package trace

import (
	"bytes"
	"encoding/binary"
	"fmt"
	"io"

	"internal/trace/event"
	"internal/trace/event/go122"
)

// timestamp is an unprocessed timestamp.
type timestamp uint64

// batch represents a batch of trace events.
// It is unparsed except for its header.
type batch struct {
	m    ThreadID
	time timestamp
	data []byte
	exp  event.Experiment

				b.removePhiArg(phi, i)

				// splitting occasionally leads to a phi having
				// a single argument (occurs with -N)
				// Don't increment i in this case because we moved
				// an unprocessed predecessor down into slot i.
			} else {
				// splice it in
				p.Succs[pi] = Edge{d, 0}
				b.Preds[i] = Edge{d, 0}
				d.Preds = append(d.Preds, Edge{p, pi})
				d.Succs = append(d.Succs, Edge{b, i})

 *
 * multipartReader.use {
 *   while (true) {
 *     val part = multipartReader.nextPart() ?: break
 *     process(part.headers, part.body)
 *   }
 * }
 * ```
 *
 * Note that [nextPart] will skip any unprocessed data from the preceding part. If the preceding
 * part is particularly large or if the underlying source is particularly slow, the [nextPart] call
 * may be slow!
 *

			// the proxier is healthy while it's starting up
			// or the proxier is fully synced.
			continue
		}

		if currentTime.Sub(hs.oldestPendingQueuedMap[ipFamily]) < hs.healthTimeout {
			// there's an unprocessed update queued for this proxier, but it's not late yet.
			continue
		}
		return false, proxierLastUpdated
	}
	return true, lastUpdated
}

			} else {
				newConditions = append(newConditions, condition)
			}
			newCondition.processed = true
		}
	}

	// append all unprocessed conditions
	for _, newCondition := range resizeConditionMap {
		if !newCondition.processed {
			newConditions = append(newConditions, newCondition.condition)
		}
	}
	pvc.Status.Conditions = newConditions
	return pvc
}

        def a = javaInPackage processedPackage, "class A {}"
        javaInPackage processedPackage, "class B {}"
        annotatedPackageInfo(processedPackage, 'com.my.processor.Configuration')
        javaInPackage 'com.unprocessed', "class Unrelated {}"

        outputs.snapshot { run "compileJava" }

        when:
        a.text = "class A { public void foo() {} }"
        run "compileJava"

        then:

 * a script body? etc), target object and context (top-level or not).
 *
 * The specialized program is then cached via a cheap cache key based on the original,
 * unprocessed contents of the script, the target object type and parent `ClassLoader`.
 *
 * Because each program is specialized to a given script structure, a lot of work is