// Strings section. At that offset is another uvarint, followed by
// that many bytes, which form the string value.
//
// declOff means a uvarint that indicates an offset within the Data
// section where the associated declaration can be found.
//
//
// There are five kinds of declarations, distinguished by their first
// byte:
//
//     type Var struct {
//         Tag  byte // 'V'
//         Pos  Pos
//         Type typeOff
//     }

	// as though it could lead to situations where the linker's
	// nosplit-overflow analysis would trigger a link failure. On the
	// other hand if they not tagged NOSPLIT then this could cause
	// problems when building the runtime (since there may be calls to
	// asm routine in cases where it's not safe to grow the stack). In
	// most cases the wrapper would be (in effect) inlined, but are

				// We also score GetLoweredClosurePtr as early as possible to ensure that the
				// context register is not stomped. GetLoweredClosurePtr should only appear
				// in the entry block where there are no phi functions, so there is no
				// conflict or ambiguity here.
				if b != f.Entry {
					f.Fatalf("LoweredGetClosurePtr appeared outside of entry block, b=%s", b.String())
				}
				score[v.ID] = ScorePhi
			case opcodeTable[v.Op].nilCheck:

package dep3

// The point of this test file is that it references a type from
// depBase that is also referenced in dep2, but dep2 is loaded by the
// linker before depBase (because it is earlier in the import list).
// There was a bug in the linker where it would not correctly read out
// the type data in this case and later crash.

import (
	"testshared/dep2"
	"testshared/depBase"
)

type Dep3 struct {
	dep  depBase.Dep
	dep2 dep2.Dep2
}

}

func checkMissingWhereConditions(db *gorm.DB) {
	if !db.AllowGlobalUpdate && db.Error == nil {
		where, withCondition := db.Statement.Clauses["WHERE"]
		if withCondition {
			if _, withSoftDelete := db.Statement.Clauses["soft_delete_enabled"]; withSoftDelete {
				whereClause, _ := where.Expression.(clause.Where)
				withCondition = len(whereClause.Exprs) > 1
			}
		}
		if !withCondition {

			return
		}
		// For SB, SP, and FP, there must be a name here. 0(FP) is not legal.
		if name != "PC" && a.Name == obj.NAME_NONE {
			p.errorf("cannot reference %s without a symbol", name)
		}
		p.setPseudoRegister(a, name, false, prefix)
		return
	}
	a.Reg = r1
	if r2 != 0 {
		// TODO: Consistency in the encoding would be nice here.
		if p.arch.InFamily(sys.ARM, sys.ARM64) {
			// Special form

//
// Currently, it outlines map assignment statements with large,
// side-effect-free RHS expressions.
func tryWrapGlobalInit(n ir.Node) *ir.Func {
	// Look for "X = ..." where X has map type.
	// FIXME: might also be worth trying to look for cases where
	// the LHS is of interface type but RHS is map type.
	if n.Op() != ir.OAS {
		return nil
	}
	as := n.(*ir.AssignStmt)
	if ir.IsBlank(as.X) || as.X.Op() != ir.ONAME {

				s += " "
			}
			s += t.treestructure1(c, i+1)
		}
		s += ")"
	}
	return s
}

// numberBlock assigns entry and exit numbers for b and b's
// children in an in-order walk from a gappy sequence, where n
// is the first number not yet assigned or reserved. N should
// be larger than zero. For each entry and exit number, the
// values one larger and smaller are reserved to indicate

	// (the one with the fewest dependencies) and its edges from the graph,
	// repeatedly, until there are no nodes left.
	// In a valid Go program, those nodes always have zero dependencies (after
	// removing all incoming dependencies), otherwise there are initialization
	// cycles.
	emitted := make(map[*declInfo]bool)
	for len(pq) > 0 {
		// get the next node
		n := heap.Pop(&pq).(*graphNode)

		// the increment delta (inc), the temporary sum (nxt),
		// the initial value (init) and the limiting value (limit).
		//
		// We also know that ind has the form (Phi init nxt) where
		// nxt is (Add inc nxt) which means: 1) inc dominates nxt
		// and 2) there is a loop starting at inc and containing nxt.
		//
		// We need to prove that the induction variable is incremented
		// only when it's smaller than the limiting value.