diff --git a/PExpr.h b/PExpr.h
index adf17a137..770c44969 100644
--- a/PExpr.h
+++ b/PExpr.h
@@ -433,10 +433,10 @@ class PEIdent : public PExpr {
 				   bool need_const_idx) const;
       NetAssign_*elaborate_lval_net_class_member_(Design*, NetScope*,
 						   NetNet*,
-						   const perm_string&) const;
+						   pform_name_t) const;
       bool elaborate_lval_net_packed_member_(Design*, NetScope*,
 					     NetAssign_*,
-					     const name_component_t&) const;
+					     pform_name_t member_path) const;
       bool elaborate_lval_darray_bit_(Design*, NetScope*,
 				       NetAssign_*) const;
 
@@ -530,8 +530,7 @@ class PEIdent : public PExpr {
       NetNet* elaborate_lnet_common_(Design*des, NetScope*scope,
 				     bool bidirectional_flag) const;
 
-      NetAssign_*scan_lname_for_nested_members_(Design*des, NetScope*scope,
-						       const pform_name_t&path) const;
+
       bool eval_part_select_(Design*des, NetScope*scope, NetNet*sig,
 			     long&midx, long&lidx) const;
 };
diff --git a/elab_lval.cc b/elab_lval.cc
index 4696c9eaf..d8f3508c7 100644
--- a/elab_lval.cc
+++ b/elab_lval.cc
@@ -146,57 +146,6 @@ NetAssign_* PEConcat::elaborate_lval(Design*des,
       return res;
 }
 
-NetAssign_*PEIdent::scan_lname_for_nested_members_(Design*des, NetScope*scope,
-						   const pform_name_t&cur_path) const
-{
-      if (cur_path.size() == 1)
-	    return 0;
-
-      pform_name_t use_path = cur_path;
-      name_component_t tail = use_path.back();
-      use_path.pop_back();
-
-      NetNet*       reg = 0;
-      const NetExpr*par = 0;
-      NetEvent*     eve = 0;
-      symbol_search(this, des, scope, use_path, reg, par, eve);
-
-      if (reg == 0) {
-	    NetAssign_*tmp = scan_lname_for_nested_members_(des, scope, use_path);
-	    if (tmp == 0)
-		  return 0;
-
-	    tmp = new NetAssign_(tmp);
-	    tmp->set_property(tail.name);
-	    return tmp;
-      }
-
-      if (reg->struct_type() && reg->struct_type()->packed()) {
-	    NetAssign_*tmp = new NetAssign_(reg);
-	    elaborate_lval_net_packed_member_(des, scope, tmp, tail);
-	    return tmp;
-      }
-#if 0
-      if (reg->struct_type() && reg->struct_type()->packed()) {
-	    cerr << get_fileline() << ": sorry: "
-		 << "I don't know what to do with packed struct " << use_path
-		 << " with member " << tail << "." << endl;
-	    return 0;
-      }
-#endif
-      if (reg->struct_type() && !reg->struct_type()->packed()) {
-	    cerr << get_fileline() << ": sorry: "
-		 << "I don't know what to do with unpacked struct " << use_path
-		 << " with member " << tail << "." << endl;
-	    return 0;
-      }
-
-      if (reg->class_type()) {
-	    return elaborate_lval_net_class_member_(des, scope, reg, tail.name);
-      }
-
-      return 0;
-}
 
 /*
  * Handle the ident as an l-value. This includes bit and part selects
@@ -210,7 +159,6 @@ NetAssign_* PEIdent::elaborate_lval(Design*des,
       NetNet*       reg = 0;
       const NetExpr*par = 0;
       NetEvent*     eve = 0;
-      perm_string   method_name;
 
       if (debug_elaborate) {
 	    cerr << get_fileline() << ": PEIdent::elaborate_lval: "
@@ -231,32 +179,28 @@ NetAssign_* PEIdent::elaborate_lval(Design*des,
 	    ivl_assert(*this, use_scope);
       }
 
-      symbol_search(this, des, use_scope, path_, reg, par, eve);
-
-	/* If the signal is not found, check to see if this is a
-	   member of a struct. Take the name of the form "a.b.member",
-	   remove the member and store it into method_name, and retry
-	   the search with "a.b". */
-      if (reg == 0 && path_.size() >= 2) {
-	    pform_name_t use_path = path_;
-	    perm_string tmp_name = peek_tail_name(use_path);
-	    use_path.pop_back();
-	    symbol_search(this, des, use_scope, use_path, reg, par, eve);
-
-	    if (reg && reg->struct_type()) {
-		  method_name = tmp_name;
-
-	    } else if (reg && reg->class_type()) {
-		  method_name = tmp_name;
-
-	    } else if (NetAssign_*subl = scan_lname_for_nested_members_(des, use_scope, path_)) {
-		  return subl;
-
-	    } else {
-		  reg = 0;
-	    }
+	/* Try to find the base part of the path that names the
+	   variable. The remainer is the member path. For example, if
+	   the path is a.b.c.d, and a.b is the path to a variable,
+	   then a.b becomes the base_path and c.d becomes the
+	   member_path. If we cannot find the variable with any
+	   prefix, then the base_path will be empty after this loop
+	   and reg will remain nil. */
+      pform_name_t base_path = path_;
+      pform_name_t member_path;
+      while (reg == 0 && base_path.size() > 0) {
+	    symbol_search(this, des, use_scope, base_path, reg, par, eve);
+	      // Found it!
+	    if (reg != 0) break;
+	      // Not found. Try to pop another name off the base_path
+	      // and push it to the front of the member_path.
+	    member_path.push_front( base_path.back() );
+	    base_path.pop_back();
       }
 
+
+	/* The l-value must be a variable. If not, then give up and
+	   print a useful error message. */
       if (reg == 0) {
 	    if (use_scope->type()==NetScope::FUNC
 		&& use_scope->func_def()->return_sig()==0
@@ -278,7 +222,10 @@ NetAssign_* PEIdent::elaborate_lval(Design*des,
 
       if (debug_elaborate) {
 	    cerr << get_fileline() << ": PEIdent::elaborate_lval: "
-		 << "Found l-value as reg."
+		 << "Found l-value path_=" << path_
+		 << " as reg=" << reg->name()
+		 << " base_path=" << base_path
+		 << ", member_path=" << member_path
 		 << " unpacked_dimensions()=" << reg->unpacked_dimensions() << endl;
       }
 
@@ -324,21 +271,27 @@ NetAssign_* PEIdent::elaborate_lval(Design*des,
 	    return 0;
       }
 
-      if (reg->struct_type() && !method_name.nil()) {
+
+	// If we find that the matched variable is a packed struct,
+	// then we can handled it with the net_packed_member_ method.
+      if (reg->struct_type() && member_path.size() > 0) {
 	    NetAssign_*lv = new NetAssign_(reg);
-	    name_component_t tmp_name (method_name);
-	    elaborate_lval_net_packed_member_(des, use_scope, lv, tmp_name);
+	    elaborate_lval_net_packed_member_(des, use_scope, lv, member_path);
 	    return lv;
       }
 
-      if (reg->class_type() && !method_name.nil() && gn_system_verilog()) {
-	    NetAssign_*lv = elaborate_lval_net_class_member_(des, use_scope, reg, method_name);
+	// If the variable is a class object, then handle it with the
+	// net_class_member_ method.
+      if (reg->class_type() && member_path.size() > 0 && gn_system_verilog()) {
+	    NetAssign_*lv = elaborate_lval_net_class_member_(des, use_scope, reg, member_path);
 	    return lv;
       }
 
+
 	// Past this point, we should have taken care of the cases
 	// where the name is a member/method of a struct/class.
-      ivl_assert(*this, method_name.nil());
+	// XXXX ivl_assert(*this, method_name.nil());
+      ivl_assert(*this, member_path.size() == 0);
 
       bool need_const_idx = is_cassign || is_force || (reg->type()==NetNet::UNRESOLVED_WIRE);
 
@@ -1063,89 +1016,137 @@ bool PEIdent::elaborate_lval_net_idx_(Design*des,
       return true;
 }
 
+/*
+ * When the l-value turns out to be a class object, this method is
+ * called with the bound variable, and the method path. For example,
+ * if path_=a.b.c and a.b binds to the variable, then sig is b, and
+ * member_path=c. if path_=obj.base.x, and base_path=obj, then sig is
+ * obj, and member_path=base.x.
+ */
 NetAssign_* PEIdent::elaborate_lval_net_class_member_(Design*des, NetScope*scope,
-				    NetNet*sig, const perm_string&method_name) const
+				    NetNet*sig, pform_name_t member_path) const
 {
       if (debug_elaborate) {
-	    cerr << get_fileline() << ": elaborate_lval_net_class_member_: "
-		 << "l-value is property " << method_name
+	    cerr << get_fileline() << ": PEIdent::elaborate_lval_net_class_member_: "
+		 << "l-value is property " << member_path
 		 << " of " << sig->name() << "." << endl;
       }
 
       const netclass_t*class_type = sig->class_type();
       ivl_assert(*this, class_type);
 
-	/* Make sure the property is really present in the class. If
-	   not, then generate an error message and return an error. */
-      int pidx = class_type->property_idx_from_name(method_name);
-      if (pidx < 0) {
-	    cerr << get_fileline() << ": error: Class " << class_type->get_name()
-		 << " does not have a property " << method_name << "." << endl;
-	    des->errors += 1;
-	    return 0;
-      }
+	// Iterate over the member_path. This handles nested class
+	// object, by generating nested NetAssign_ object. We start
+	// with lv==0, so the front of the member_path is the member
+	// of the outermost class. This generates an lv from sig. Then
+	// iterate over the remaining of the member_path, replacing
+	// the outer lv with an lv that nests the lv from the previous
+	// iteration.
+      NetAssign_*lv = 0;
+      do {
+	      // Start with the first component of the member path...
+	    perm_string method_name = peek_head_name(member_path);
+	      // Pull that component from the member_path. We need to
+	      // know the current member being worked on, and will
+	      // need to know if there are more members to be worked on.
+	    name_component_t member_cur = member_path.front();
+	    member_path.pop_front();
 
-      property_qualifier_t qual = class_type->get_prop_qual(pidx);
-      if (qual.test_local() && ! class_type->test_scope_is_method(scope)) {
-	    cerr << get_fileline() << ": error: "
-		 << "Local property " << class_type->get_prop_name(pidx)
-		 << " is not accessible (l-value) in this context."
-		 << " (scope=" << scope_path(scope) << ")" << endl;
-	    des->errors += 1;
-
-      } else if (qual.test_static()) {
-
-	      // Special case: this is a static property. Ignore the
-	      // "this" sig and use the property itself, which is not
-	      // part of the sig, as the l-value.
-	    NetNet*psig = class_type->find_static_property(method_name);
-	    ivl_assert(*this, psig);
-
-	    NetAssign_*lv = new NetAssign_(psig);
-	    return lv;
-
-      } else if (qual.test_const()) {
-	    cerr << get_fileline() << ": error: "
-		 << "Property " << class_type->get_prop_name(pidx)
-		 << " is constant in this context." << endl;
-	    des->errors += 1;
-      }
-
-      NetAssign_*lv = new NetAssign_(sig);
-      lv->set_property(method_name);
-
-      ivl_type_t ptype = class_type->get_prop_type(pidx);
-      const netdarray_t*mtype = dynamic_cast<const netdarray_t*> (ptype);
-      if (mtype) {
-	    const name_component_t&name_tail = path_.back();
-	    if (! name_tail.index.empty()) {
-		  cerr << get_fileline() << ": sorry: "
-		       << "Array index of array properties not supported."
+	    if (debug_elaborate) {
+		  cerr << get_fileline() << ": PEIdent::elaborate_lval_net_class_member_: "
+		       << "Processing member_cur=" << member_cur
 		       << endl;
+	    }
+
+	      // Make sure the property is really present in the class. If
+	      // not, then generate an error message and return an error.
+	    int pidx = class_type->property_idx_from_name(method_name);
+	    if (pidx < 0) {
+		  cerr << get_fileline() << ": error: Class " << class_type->get_name()
+		       << " does not have a property " << method_name << "." << endl;
+		  des->errors += 1;
+		  return 0;
+	    }
+
+	    property_qualifier_t qual = class_type->get_prop_qual(pidx);
+	    if (qual.test_local() && ! class_type->test_scope_is_method(scope)) {
+		  cerr << get_fileline() << ": error: "
+		       << "Local property " << class_type->get_prop_name(pidx)
+		       << " is not accessible (l-value) in this context."
+		       << " (scope=" << scope_path(scope) << ")" << endl;
+		  des->errors += 1;
+
+	    } else if (qual.test_static()) {
+
+		    // Special case: this is a static property. Ignore the
+		    // "this" sig and use the property itself, which is not
+		    // part of the sig, as the l-value.
+		  NetNet*psig = class_type->find_static_property(method_name);
+		  ivl_assert(*this, psig);
+
+		  lv = new NetAssign_(psig);
+		  return lv;
+
+	    } else if (qual.test_const()) {
+		  cerr << get_fileline() << ": error: "
+		       << "Property " << class_type->get_prop_name(pidx)
+		       << " is constant in this context." << endl;
 		  des->errors += 1;
 	    }
-      }
+
+	    lv = lv? new NetAssign_(lv) : new NetAssign_(sig);
+	    lv->set_property(method_name);
+
+	      // Now get the type of the property.
+	    ivl_type_t ptype = class_type->get_prop_type(pidx);
+	    const netdarray_t*mtype = dynamic_cast<const netdarray_t*> (ptype);
+	    if (mtype) {
+		  if (! member_cur.index.empty()) {
+			cerr << get_fileline() << ": sorry: "
+			     << "Array index of array properties not supported."
+			     << endl;
+			des->errors += 1;
+		  }
+	    }
+
+	      // If the current member is a class object, then get the
+	      // type. We may wind up iterating, and need the proper
+	      // class type.
+	    class_type = dynamic_cast<const netclass_t*>(ptype);
+
+      } while (member_path.size() > 0);
+
 
       return lv;
 }
 
-
+/*
+ * This method is caled to handle l-value identifiers that are packed
+ * structs. The lv is already attached to the variable, so this method
+ * calculates the part select that is defined by the member_path. For
+ * example, if the path_ is main.sub.sub_local, and the variable is
+ * main, then we know at this point that main is a packed struct, and
+ * lv contains the reference to the bound variable (main). In this
+ * case member_path==sub.sub_local, and it is up to this method to
+ * work out the part select that the member_path represents.
+ */
 bool PEIdent::elaborate_lval_net_packed_member_(Design*des, NetScope*scope,
 						NetAssign_*lv,
-						const name_component_t&member_comp) const
+						pform_name_t member_path) const
 {
-      const perm_string&member_name = member_comp.name;
+      if (debug_elaborate) {
+	    cerr << get_fileline() << ": PEIdent::elaborate_lval_net_packed_member_: "
+		 << "path_=" << path_
+		 << " member_path=" << member_path
+		 << endl;
+      }
+
       NetNet*reg = lv->sig();
       ivl_assert(*this, reg);
 
       const netstruct_t*struct_type = reg->struct_type();
       ivl_assert(*this, struct_type);
 
-      if (debug_elaborate) {
-	    cerr << get_fileline() << ": debug: elaborate lval packed member: "
-		 << "path_=" << path_ << endl;
-      }
-
       if (! struct_type->packed()) {
 	    cerr << get_fileline() << ": sorry: Only packed structures "
 		 << "are supported in l-value." << endl;
@@ -1153,99 +1154,169 @@ bool PEIdent::elaborate_lval_net_packed_member_(Design*des, NetScope*scope,
 	    return false;
       }
 
-	// Shouldn't be seeing unpacked arrays of packed structs...
-      ivl_assert(*this, reg->unpacked_dimensions() == 0);
-
-	// This is a packed member, so the name is of the form
-	// "a.b[...].c[...]" which means that the path_ must have at
-	// least 2 components. We are processing "c[...]" at that
-	// point (otherwise known as member_name) so we'll save a
-	// reference to it in name_tail. We are also processing "b[]"
-	// so save that as name_base.
-
-      ivl_assert(*this, path_.size() >= 2);
-
+	// Looking for the base name. We need that to know about
+	// indices we may need to apply. This is to handle the case
+	// that the base is an array of structs, and not just a
+	// struct.
       pform_name_t::const_reverse_iterator name_idx = path_.rbegin();
-      ivl_assert(*this, name_idx->name == member_name);
-      const name_component_t&name_tail = *name_idx;
+      for (size_t idx = 1 ; idx < member_path.size() ; idx += 1)
+	    ++ name_idx;
+      if (name_idx->name != peek_head_name(member_path)) {
+	    cerr << get_fileline() << ": internal error: "
+		 << "name_idx=" << name_idx->name
+		 << ", expecting member_name=" << peek_head_name(member_path)
+		 << endl;
+	    des->errors += 1;
+	    return false;
+      }
+      ivl_assert(*this, name_idx->name == peek_head_name(member_path));
       ++ name_idx;
       const name_component_t&name_base = *name_idx;
 
-	// Calculate the offset within the packed structure of the
-	// member, and any indices. We will add in the offset of the
-	// struct into the packed array later. Note that this works
-	// for packed unions as well (although the offset will be 0
-	// for union members).
-      unsigned long off;
-      const netstruct_t::member_t* member = struct_type->packed_member(member_name, off);
+	// Shouldn't be seeing unpacked arrays of packed structs...
+      ivl_assert(*this, reg->unpacked_dimensions() == 0);
 
-      if (member == 0) {
-	    cerr << get_fileline() << ": error: Member " << member_name
-		 << " is not a member of variable " << reg->name() << endl;
-	    des->errors += 1;
-	    return false;
-      }
+	// These make up the "part" select that is the equivilent of
+	// following the member path through the nested structs. To
+	// start with, the off[set] is zero, and use_width is the
+	// width of the entire variable. The first member_comp is at
+	// some offset within the variable, and will have a reduced
+	// width. As we step through the member_path the off
+	// increases, and use_width shrinks.
+      unsigned long off = 0;
+      unsigned long use_width = struct_type->packed_width();
 
-      unsigned long use_width = member->net_type->packed_width();
+      pform_name_t completed_path;
+      do {
+	    const name_component_t member_comp = member_path.front();
+	    const perm_string&member_name = member_comp.name;
 
-	// Get the index component type. At this point, we only
-	// support bit select or none.
-      index_component_t::ctype_t use_sel = index_component_t::SEL_NONE;
-      if (!name_tail.index.empty())
-	    use_sel = name_tail.index.back().sel;
+	    if (debug_elaborate) {
+		  cerr << get_fileline() << ": PEIdent::elaborate_lval_net_packed_member_: "
+		       << "Processing member_comp=" << member_comp
+		       << " (completed_path=" << completed_path << ")"
+		       << endl;
+	    }
 
-      if (use_sel != index_component_t::SEL_NONE && use_sel != index_component_t::SEL_BIT) {
-	    cerr << get_fileline() << ": sorry: Assignments to part selects of "
-		    "a struct member are not yet supported." << endl;
-	    des->errors += 1;
-	    return false;
-      }
+	      // This is a packed member, so the name is of the form
+	      // "a.b[...].c[...]" which means that the path_ must have at
+	      // least 2 components. We are processing "c[...]" at that
+	      // point (otherwise known as member_name) and we have a
+	      // reference to it in member_comp.
 
-      if (! name_tail.index.empty()) {
+	      // The member_path is the members we want to follow for the
+	      // variable. For example, main[N].a.b may have main[N] as the
+	      // base_name, and member_path=a.b. The member_name is the
+	      // start of the member_path, and is "a". The member_name
+	      // should be a member of the struct_type type.
 
-	      // If there are index expressions in this l-value
-	      // expression, then the implicit assumption is that the
-	      // member is a vector type with packed dimensions. For
-	      // example, if the l-value expression is "foo.member[1][2]",
-	      // then the member should be something like:
-	      //    ... logic [h:l][m:n] foo;
-	      // Get the dimensions from the netvector_t that this implies.
-	    const netvector_t*mem_vec = dynamic_cast<const netvector_t*>(member->net_type);
-	    ivl_assert(*this, mem_vec);
-	    const vector<netrange_t>&mem_packed_dims = mem_vec->packed_dims();
+	      // Calculate the offset within the packed structure of the
+	      // member, and any indices. We will add in the offset of the
+	      // struct into the packed array later. Note that this works
+	      // for packed unions as well (although the offset will be 0
+	      // for union members).
+	    unsigned long tmp_off;
+	    const netstruct_t::member_t* member = struct_type->packed_member(member_name, tmp_off);
 
-	    if (name_tail.index.size() > mem_packed_dims.size()) {
-		  cerr << get_fileline() << ": error: "
-		       << "Too many index expressions for member." << endl;
+	    if (member == 0) {
+		  cerr << get_fileline() << ": error: Member " << member_name
+		       << " is not a member of struct type of "
+		       << reg->name()
+		       << "." << completed_path << endl;
+		  des->errors += 1;
+		  return false;
+	    }
+	    if (debug_elaborate) {
+		  cerr << get_fileline() << ": PEIdent::elaborate_lval_net_packed_member_: "
+		       << "Member type: " << *(member->net_type)
+		       << endl;
+	    }
+
+	    off += tmp_off;
+	    ivl_assert(*this, use_width >= (unsigned long)member->net_type->packed_width());
+	    use_width = member->net_type->packed_width();
+
+	      // At this point, off and use_width are the part select
+	      // expressed by the member_comp, which is a member of the
+	      // struct. We can further refine the part select with any
+	      // indices that might be present.
+
+	      // Get the index component type. At this point, we only
+	      // support bit select or none.
+	    index_component_t::ctype_t use_sel = index_component_t::SEL_NONE;
+	    if (!member_comp.index.empty())
+		  use_sel = member_comp.index.back().sel;
+
+	    if (use_sel != index_component_t::SEL_NONE && use_sel != index_component_t::SEL_BIT) {
+		  cerr << get_fileline() << ": sorry: Assignments to part selects of "
+			"a struct member are not yet supported." << endl;
 		  des->errors += 1;
 		  return false;
 	    }
 
-	      // Evaluate all but the last index expression, into prefix_indices.
-	    list<long>prefix_indices;
-	    bool rc = evaluate_index_prefix(des, scope, prefix_indices, name_tail.index);
-	    ivl_assert(*this, rc);
+	    if (! member_comp.index.empty()) {
 
-	      // Evaluate the last index expression into a constant long.
-	    NetExpr*texpr = elab_and_eval(des, scope, name_tail.index.back().msb, -1, true);
-	    long tmp;
-	    if (texpr == 0 || !eval_as_long(tmp, texpr)) {
-		  cerr << get_fileline() << ": error: "
-			"Array index expressions must be constant here." << endl;
-		  des->errors += 1;
-		  return false;
+		    // If there are index expressions in this l-value
+		    // expression, then the implicit assumption is that the
+		    // member is a vector type with packed dimensions. For
+		    // example, if the l-value expression is "foo.member[1][2]",
+		    // then the member should be something like:
+		    //    ... logic [h:l][m:n] foo;
+		    // Get the dimensions from the netvector_t that this implies.
+		  const netvector_t*mem_vec = dynamic_cast<const netvector_t*>(member->net_type);
+		  ivl_assert(*this, mem_vec);
+		  const vector<netrange_t>&mem_packed_dims = mem_vec->packed_dims();
+
+		  if (member_comp.index.size() > mem_packed_dims.size()) {
+			cerr << get_fileline() << ": error: "
+			     << "Too many index expressions for member." << endl;
+			des->errors += 1;
+			return false;
+		  }
+
+		    // Evaluate all but the last index expression, into prefix_indices.
+		  list<long>prefix_indices;
+		  bool rc = evaluate_index_prefix(des, scope, prefix_indices, member_comp.index);
+		  ivl_assert(*this, rc);
+
+		    // Evaluate the last index expression into a constant long.
+		  NetExpr*texpr = elab_and_eval(des, scope, member_comp.index.back().msb, -1, true);
+		  long tmp;
+		  if (texpr == 0 || !eval_as_long(tmp, texpr)) {
+			cerr << get_fileline() << ": error: "
+			      "Array index expressions must be constant here." << endl;
+			des->errors += 1;
+			return false;
+		  }
+
+		  delete texpr;
+
+		    // Now use the prefix_to_slice function to calculate the
+		    // offset and width of the addressed slice of the member.
+		  long loff;
+		  unsigned long lwid;
+		  prefix_to_slice(mem_packed_dims, prefix_indices, tmp, loff, lwid);
+
+		  off += loff;
+		  use_width = lwid;
 	    }
 
-	    delete texpr;
+	      // Complete this component of the path, mark it
+	      // completed, and set up for the next component.
+	    struct_type = dynamic_cast<const netstruct_t*> (member->net_type);
+	    completed_path .push_back(member_comp);
+	    member_path.pop_front();
 
-	      // Now use the prefix_to_slice function to calculate the
-	      // offset and width of the addressed slice of the member.
-	    long loff;
-	    unsigned long lwid;
-	    prefix_to_slice(mem_packed_dims, prefix_indices, tmp, loff, lwid);
+      } while (member_path.size() > 0 && struct_type != 0);
 
-	    off += loff;
-	    use_width = lwid;
+      if (debug_elaborate) {
+	    cerr << get_fileline() << ": PEIdent::elaborate_lval_net_packed_member_: "
+		 << "After processing member_path, "
+		 << "off=" << off
+		 << ", use_width=" << use_width
+		 << ", completed_path=" << completed_path
+		 << ", member_path=" << member_path
+		 << endl;
       }
 
 	// The dimensions in the expression must match the packed