}
      auto output_shape = DenseElementsAttr::get(shape_type, shape);
      auto shape_op = builder.create<tfl::ConstOp>(loc, output_shape);
      op_state.addOperands({shape_op});
    }

    op_state.addTypes({type});
  }

  // While the last several tensors could be optional tensors for an tfl op, the
  // number of input operands could vary. Gets the min/max number of
  // operands from tflite op name.

					exts.AddBytes([]byte(m.serverName))
				})
			})
		})
	}
	if len(m.supportedPoints) > 0 && !echInner {
		// RFC 4492, Section 5.1.2
		exts.AddUint16(extensionSupportedPoints)
		exts.AddUint16LengthPrefixed(func(exts *cryptobyte.Builder) {
			exts.AddUint8LengthPrefixed(func(exts *cryptobyte.Builder) {
				exts.AddBytes(m.supportedPoints)
			})
		})
	}

					b.AddASN1(cryptobyte_asn1.Tag(2).ContextSpecific(), func(b *cryptobyte.Builder) {
						b.AddBytes([]byte(name))
					})
				})
			}

			for _, ipNet := range ips {
				b.AddASN1(cryptobyte_asn1.SEQUENCE, func(b *cryptobyte.Builder) {
					b.AddASN1(cryptobyte_asn1.Tag(7).ContextSpecific(), func(b *cryptobyte.Builder) {
						b.AddBytes(ipAndMask(ipNet))
					})
				})
			}

	ds := loader.Sym(s.(dwSym))
	dsu := c.ldr.MakeSymbolUpdater(ds)
	dsu.AddUintXX(c.arch, uint64(i), size)
}

func (c dwctxt) AddBytes(s dwarf.Sym, b []byte) {
	ds := loader.Sym(s.(dwSym))
	dsu := c.ldr.MakeSymbolUpdater(ds)
	dsu.AddBytes(b)
}

func (c dwctxt) AddString(s dwarf.Sym, v string) {
	ds := loader.Sym(s.(dwSym))
	dsu := c.ldr.MakeSymbolUpdater(ds)
	dsu.Addstring(v)
}

	// descsz
	s.AddUint32(ctxt.Arch, uint32(len(desc)))
	// tag
	s.AddUint32(ctxt.Arch, tag)
	// name + padding
	s.AddBytes(ELF_NOTE_GO_NAME)
	for len(s.Data())%4 != 0 {
		s.AddUint8(0)
	}
	// desc + padding
	s.AddBytes(desc)
	for len(s.Data())%4 != 0 {
		s.AddUint8(0)
	}
	s.SetSize(int64(len(s.Data())))
	s.SetAlign(4)
}

func (ctxt *Link) doelf() {