return iamOS.saveIAMConfig(ctx, &p, getPolicyDocPath(policyName))
}

func (iamOS *IAMObjectStore) saveMappedPolicy(ctx context.Context, name string, userType IAMUserType, isGroup bool, mp MappedPolicy, opts ...options) error {
	return iamOS.saveIAMConfig(ctx, mp, getMappedPolicyPath(name, userType, isGroup), opts...)
}

000001a0  90 02 10 55 85 49 48 89  d8 d6 4b 68 29 cb 28 66  |...U.IH...Kh).(f|
000001b0  1c d1 97 e6 a0 10 90 63  83 96 33 ee 5a 5a 5b 66  |.......c..3.ZZ[f|
000001c0  ca b3 0d be 6d 70 c5 de  fd 78 c8 f8 e1 c5 78 ef  |....mp...x....x.|
000001d0  07 2e 60 06 28 86 ed e6  bd 7b 37 33 0e 06 5e 06  |..`.(....{73..^.|
000001e0  fb 44 2b 96 16 fe 09 30  dc 03 53 bc c9 f9 6f 1e  |.D+....0..S...o.|

		if !E.IsInt64() || int64(int(e64)) != e64 {
			return nil, errors.New("crypto/rsa: generated key exponent too large")
		}

		mn, err := bigmod.NewModulusFromBig(N)
		if err != nil {
			return nil, err
		}
		mp, err := bigmod.NewModulusFromBig(P)
		if err != nil {
			return nil, err
		}
		mq, err := bigmod.NewModulusFromBig(Q)
		if err != nil {
			return nil, err
		}

		key := &PrivateKey{

// be printed during a traceback.
func showframe(sf srcFunc, gp *g, firstFrame bool, calleeID abi.FuncID) bool {
	mp := getg().m
	if mp.throwing >= throwTypeRuntime && gp != nil && (gp == mp.curg || gp == mp.caughtsig.ptr()) {
		return true
	}
	return showfuncinfo(sf, firstFrame, calleeID)
}

	if libcontainercgroups.IsCgroup2UnifiedMode() {
		path = m.buildCgroupUnifiedPath(name)
		file = "memory.current"
	} else {
		mp, ok := m.subsystems.MountPoints["memory"]
		if !ok { // should not happen
			return -1, errors.New("no cgroup v1 mountpoint for memory controller found")
		}
		path = mp + "/" + m.Name(name)
		file = "memory.usage_in_bytes"
	}
	val, err := fscommon.GetCgroupParamUint(path, file)

	// go unnoticed until long after t.when.
	// Calling acquirem instead of using getg().m makes sure that
	// we end up locking and inserting into the current P's timers.
	mp := acquirem()
	ts := &mp.p.ptr().timers
	ts.lock()
	ts.cleanHead()
	t.lock()
	t.trace("maybeAdd")
	when := int64(0)
	wake := false
	if t.needsAdd() {
		t.state |= timerHeaped
		when = t.when

			break
		}
		h4, h5, mp := walkBinary(l)
		has4 = has4 || h4
		has5 = has5 || h5
		maxProblem = max(maxProblem, mp)
	}

	switch r := e.Y.(type) {
	case *ast.BinaryExpr:
		if r.Op.Precedence() <= e.Op.Precedence() {
			// parens will be inserted.
			// pretend this is an *ast.ParenExpr and do nothing.
			break
		}
		h4, h5, mp := walkBinary(r)
		has4 = has4 || h4

	f.fn.counterVar = ""
}

func annotate(names []string) {
	var p *Package
	if *pkgcfg != "" {
		pp := pkgconfig.PkgPath
		pn := pkgconfig.PkgName
		mp := pkgconfig.ModulePath
		mdb, err := encodemeta.NewCoverageMetaDataBuilder(pp, pn, mp)
		if err != nil {
			log.Fatalf("creating coverage meta-data builder: %v\n", err)
		}
		p = &Package{
			mdb: mdb,
		}
	}

func (m *consistentHeapStats) read(out *heapStatsDelta) {
	// Getting preempted after this point is not safe because
	// we read allp. We need to make sure a STW can't happen
	// so it doesn't change out from under us.
	mp := acquirem()

	// Get the current generation. We can be confident that this
	// will not change since read is serialized and is the only
	// one that modifies currGen.
	currGen := m.gen.Load()
	prevGen := currGen - 1

func gcAssistAlloc(gp *g) {
	// Don't assist in non-preemptible contexts. These are
	// generally fragile and won't allow the assist to block.
	if getg() == gp.m.g0 {
		return
	}
	if mp := getg().m; mp.locks > 0 || mp.preemptoff != "" {
		return
	}

	// This extremely verbose boolean indicates whether we've
	// entered mark assist from the perspective of the tracer.
	//