// Don't Store to variables that are about to be overwritten by Move/Zero.
(Zero {t1} [n] p1 store:(Store {t2} (OffPtr [o2] p2) _ mem))
	&& isSamePtr(p1, p2) && store.Uses == 1
	&& n >= o2 + t2.Size()
	&& clobber(store)
	=> (Zero {t1} [n] p1 mem)
(Move {t1} [n] dst1 src1 store:(Store {t2} op:(OffPtr [o2] dst2) _ mem))
	&& isSamePtr(dst1, dst2) && store.Uses == 1
	&& n >= o2 + t2.Size()

	op_STCKC   uint32 = 0xB207 // FORMAT_S          STORE CLOCK COMPARATOR
	op_STCKE   uint32 = 0xB278 // FORMAT_S          STORE CLOCK EXTENDED
	op_STCKF   uint32 = 0xB27C // FORMAT_S          STORE CLOCK FAST
	op_STCM    uint32 = 0xBE00 // FORMAT_RS2        STORE CHARACTERS UNDER MASK (low)
	op_STCMH   uint32 = 0xEB2C // FORMAT_RSY2       STORE CHARACTERS UNDER MASK (high)

	/* VSX vector store */
	{as: ASTXVD2X, a1: C_VSREG, a6: C_XOREG, type_: 86, size: 4},        /* vsx vector store, xx1-form */
	{as: ASTXV, a1: C_VSREG, a6: C_SOREG, type_: 97, size: 4},           /* vsx vector store, dq-form */
	{as: ASTXVL, a1: C_VSREG, a2: C_REG, a6: C_REG, type_: 99, size: 4}, /* vsx vector store with length x-form */

	/* VSX scalar load */

//
// And the saved g will be used in pthread_key_destructor,
// since the g stored in the TLS by Go might be cleared in some platforms,
// before the destructor invoked, so, we restore g by the stored g, before dropm.
//
// We store g0 instead of m, to make the assembly code simpler,
// since we need to restore g0 in runtime.cgocallback.
//

			// out of range -0x80000000 ~ 0xffffffff, must store 64-bit.
			t.As = ADWORD
			sz = 8
		} // else store 32-bit
	} else if p.As == AMOVD && a.Type != obj.TYPE_MEM || cls == C_ADDR || cls == C_VCON || lit != int64(int32(lit)) || uint64(lit) != uint64(uint32(lit)) {
		// conservative: don't know if we want signed or unsigned extension.
		// in case of ambiguity, store 64-bit
		t.As = ADWORD
		sz = 8
	}

(Load <t> ptr mem) && is64BitFloat(t) => (FMOVDload ptr mem)

// stores
(Store {t} ptr val mem) && t.Size() == 1 => (MOVBstore ptr val mem)
(Store {t} ptr val mem) && t.Size() == 2 => (MOVHstore ptr val mem)
(Store {t} ptr val mem) && t.Size() == 4 && !t.IsFloat() => (MOVWstore ptr val mem)
(Store {t} ptr val mem) && t.Size() == 8 && !t.IsFloat() => (MOVDstore ptr val mem)
(Store {t} ptr val mem) && t.Size() == 4 &&  t.IsFloat() => (FMOVSstore ptr val mem)

			if mp, ok := globalIAMSys.store.GetMappedPolicy(opts.EntityValue, false); ok {
				userPolicyMap.Store(opts.EntityValue, mp)
			}
		} else {
			stsErr := globalIAMSys.store.loadMappedPolicies(ctx, stsUser, false, stsPolicyMap)
			if stsErr != nil {
				return info, errSRBackendIssue(stsErr)
			}
			usrErr := globalIAMSys.store.loadMappedPolicies(ctx, regUser, false, userPolicyMap)

	f.expectations.DeletionObserved(klog.FromContext(ctx), dsKey)

	return nil
}

type daemonSetsController struct {
	*DaemonSetsController

	dsStore      cache.Store
	historyStore cache.Store
	podStore     cache.Store
	nodeStore    cache.Store
	fakeRecorder *record.FakeRecorder
}

\n\nSo what happens? Decode first uses json or yaml to unmarshal the serialized data into your external MyAPIObject. That causes the raw JSON to be stored, but not unpacked. The next step is to copy (using pkg/conversion) into the internal struct. The runtime package's DefaultScheme has conversion functions installed which will unpack the JSON stored in RawExtension, turning it into the correct object type, and storing it in the Object. (TODO: In the case where the object is of an unknown type, a...

\n\nSo what happens? Decode first uses json or yaml to unmarshal the serialized data into your external MyAPIObject. That causes the raw JSON to be stored, but not unpacked. The next step is to copy (using pkg/conversion) into the internal struct. The runtime package's DefaultScheme has conversion functions installed which will unpack the JSON stored in RawExtension, turning it into the correct object type, and storing it in the Object. (TODO: In the case where the object is of an unknown type, a...