}
	addressSize := r.AddressSize()
	if e == nil || e.Offset != off {
		return nil, DecodeError{name, off, "no type at offset"}
	}

	// If this is the root of the recursion, prepare to resolve
	// typedef sizes and perform other fixups once the recursion is
	// done. This must be done after the type graph is constructed
	// because it may need to resolve cycles in a different order than
	// readType encounters them.

	}

	// An infinitely expanding interface (due to a cycle) is detected
	// elsewhere (Checker.validType), so here we simply assume we only
	// have valid interfaces. Mark the interface as complete to avoid
	// infinite recursion if the validType check occurs later for some
	// reason.
	ityp.tset = &_TypeSet{terms: allTermlist} // TODO(gri) is this sufficient?

	var unionSets map[*Union]*_TypeSet
	if check != nil {

	}

	// SetConstraint can't be called if the constraint type is not yet complete.
	// When type params are created in the 'P' case of (*importReader).obj(),
	// the associated constraint type may not be complete due to recursion.
	// Therefore, we defer calling SetConstraint there, and call it here instead
	// after all types are complete.
	for _, d := range p.later {
		d.t.SetConstraint(d.constraint)
	}

//
// symMerge assumes non-degenerate arguments: a < m && m < b.
// Having the caller check this condition eliminates many leaf recursion calls,
// which improves performance.
func symMerge{{.FuncSuffix}}{{.TypeParam}}(data {{.DataType}}, a, m, b int {{.ExtraParam}}) {
	// Avoid unnecessary recursions of symMerge
	// by direct insertion of data[a] into data[m:b]
	// if data[a:m] only contains one element.
	if m-a == 1 {

(%s %q %x %X), it is treated identically to a string, as a single item.

To avoid recursion in cases such as

	type X string
	func (x X) String() string { return Sprintf("<%s>", x) }

convert the value before recurring:

	func (x X) String() string { return Sprintf("<%s>", string(x)) }

Infinite recursion can also be triggered by self-referential data

        String fullMessage = (message != null) ? message : "";

        // To break out of possible endless loop when getCause returns "this", or dejaVu for n-level recursion (n>1)
        Set<Throwable> dejaVu = Collections.newSetFromMap(new IdentityHashMap<>());
        for (Throwable t = exception; t != null && t != t.getCause(); t = t.getCause()) {

        .withFeatures(computeElementSetFeatures(parentBuilder.getFeatures()))
        .suppressing(parentBuilder.getSuppressedTests())
        .createTestSuite();
  }

  /**
   * To avoid infinite recursion, test suites with these marker features won't have derived suites
   * created for them.
   */
  enum NoRecurse implements Feature<Void> {
    SUBMULTISET,
    DESCENDING;

    @Override

				//        m() interface{T}
				//    }
				//
				// If two such (differently named) interfaces are compared,
				// endless recursion occurs if the cycle is not detected.
				//
				// If x and y were compared before, they must be equal
				// (if they were not, the recursion would have stopped);
				// search the ifacePair stack for the same pair.
				//
				// This is a quadratic algorithm, but in practice these stacks

			}
		}
		newphis[h] = change
	}

	for c := sdom[b.ID].child; c != nil; c = sdom[c.ID].sibling {
		rewriteNewPhis(h, c, f, defsForUses, newphis, dfPhiTargets, sdom) // TODO: convert to explicit stack from recursion.
	}
}

// addDFphis creates new trivial phis that are necessary to correctly reflect (within SSA)
// a new definition for variable "x" inserted at h (usually but not necessarily a phi).

        .withFeatures(computeElementSetFeatures(parentBuilder.getFeatures()))
        .suppressing(parentBuilder.getSuppressedTests())
        .createTestSuite();
  }

  /**
   * To avoid infinite recursion, test suites with these marker features won't have derived suites
   * created for them.
   */
  enum NoRecurse implements Feature<Void> {
    SUBMULTISET,
    DESCENDING;

    @Override