wy_qcos.transpiler.cmss.circuit package

Subpackages

Submodules

wy_qcos.transpiler.cmss.circuit.circuit_equiv module

class wy_qcos.transpiler.cmss.circuit.circuit_equiv.CircuitEquivChecker(qc1, qc2)

基类：object

CircuitEquivChecker scope for different methods.

Description:

Operator(Recommended scope for circuit): width of circuit in (1, 10], depth of circuit in (1, 50]. QCEC(Recommended scope for circuit): width of circuit in (10, 50], depth of circuit in (50, 2000].

参数:
static cicuit_equiv_by_qcec(qc1, qc2)

Return True if qc1 is equal to qc2 by qcec.

参数:

  • qc1 (str | os.PathLike[str]) -- quantum circuit represented by

  • path. (qasm string or)

  • qc2 (str | os.PathLike[str]) -- quantum circuit represented by

  • path.

algo_equiv(algo_no=0)

Compare the quantum circuits by selecting different algorithms.

参数:

  • algo_no (int) -- the algorithm number, default 0.

  • 0 (If algo_no is)

  • Operator (verifying by)

  • QCEC. (otherwise)

  • 1 (If algo_no is)

  • Operator

  • 2 (If algo_no is)

  • and (verifying by MQT QCEC(Decision Diagrams)

  • Checking). (Alternating Equivalence)

返回类型:

bool

wy_qcos.transpiler.cmss.circuit.collect_blocks module

class wy_qcos.transpiler.cmss.circuit.collect_blocks.BlockCollector(dag)

基类：object

Dividing a DAG into blocks of nodes that satisfy certain criteria.

参数:

dag (DAGCircuit)

collect_matching_block(filter_fn)

Collects the largest block that matches the filter function.

collect_all_matching_blocks(filter_fn, split_blocks=True, min_block_size=2, collect_from_back=False)

Collects all blocks that match a given filtering function filter_fn.

This iteratively finds the largest block that does not match filter_fn, then the largest block that matches filter_fn, and so on, until no more uncollected nodes remain. Intuitively, finding larger blocks of non-matching nodes helps to find larger blocks of matching nodes later on.

参数:

  • filter_fn -- the filter function.

  • split_blocks (bool, optional) -- If true, split collected blocks into sub-blocks over disjoint qubit subsets. Defaults to True.

  • min_block_size (int, optional) -- the minimum number of gates in the block for the block to be collected. Defaults to 2.

  • collect_from_back (bool, optional) -- collect blocks from the outputs towards the inputs of the circuit. Defaults to False.

class wy_qcos.transpiler.cmss.circuit.collect_blocks.BlockSplitter

基类：object

Splits a block of nodes into sub-blocks over disjoint qubits.

The implementation is based on the Disjoint Set Union data structure.

find_leader(index)

Find leader in DSU.

参数:

index (int) -- bit index to find.

返回:

leader qubit index.

返回类型:

int

union_leaders(index1, index2)

Union in DSU.

参数:

  • index1 (int) -- First qubit index.

  • index2 (int) -- Second qubit index.

run(block)

Splits block of nodes into sub-blocks over disjoint qubits.

参数:

block (list) -- List of nodes to split.

返回:

List of sub-blocks, each containing nodes acting on connected

qubit sets.

返回类型:

list

wy_qcos.transpiler.cmss.circuit.cpp_utils module

wy_qcos.transpiler.cmss.circuit.cpp_utils.load_qasm_to_ir(file_path, code_type='cpp')

Load qasm file to gate list.

参数:

  • file_path (str) -- qasm file path.

  • code_type (str, optional) -- GateOperation type, can be 'cpp' or 'py'. Defaults to "cpp".

返回:

gate list.

返回类型:

list[GateOperation]

wy_qcos.transpiler.cmss.circuit.cpp_utils.convert_ir_py2cpp(ir_py)
参数:

ir_py (list[GateOperation])

wy_qcos.transpiler.cmss.circuit.cpp_utils.convert_ir_cpp2py(ir_cpp)
参数:

ir_cpp (list[wy_qcos.transpiler.high_performance.GateOperation])

wy_qcos.transpiler.cmss.circuit.dag_circuit module

class wy_qcos.transpiler.cmss.circuit.dag_circuit.DAGCircuit

基类：object

Quantum circuit as a directed acyclic graph.

There are 3 types of nodes in the graph: inputs, outputs, and operations. The nodes are connected by directed edges that correspond to qubits.

property wires

Return a list of the wires in order.

property node_counter

Returns the number of nodes in the dag.

add_qubits(num_qubits)

Add qubit wires.

参数:

num_qubits (int) -- number of qubits

rename_op(old_op, new_op)

Convert between Rz and T,Z,S gates.

参数:
parameterize_all_rz()

Convert all T/Tdg/S/Sdg/Z into Rz gates.

deparameterize_all_rz()

Convert all Rz gates into T/Tdg/S/Sdg/Z.

apply_operation_back(op, qargs=None)

Apply an operation/gate to the output of the circuit.

参数:

  • op -- the operation associated with the DAG node

  • qargs -- qubits that op will be applied to, GateOperation has targets, so qargs can be None.

返回:

the node for the op that was added to the dag

返回类型:

DAGOpNode

apply_operation_front(op, qargs=None, cargs=None)

Apply an operation to the input of the circuit.

参数:

  • op -- the operation associated with the DAG node

  • qargs -- qubits that op will be applied to

  • cargs (tuple[Clbit]) -- cbits that op will be applied to

返回:

the node for the op that was added to the dag

返回类型:

DAGOpNode

size()

Return the number of operations.

返回:

the circuit size

返回类型:

int

depth()

Return the circuit depth.

返回:

the circuit depth

返回类型:

int

width()

Return the total number of qubits used by the circuit.

nodes_on_wire(wire, only_ops=False)

Iterator for nodes that affect a given wire.

参数:

  • wire (Bit) -- the wire to be looked at.

  • only_ops (bool) -- True if only the ops nodes are wanted; otherwise, all nodes are returned.

生成器:

Iterator -- the successive nodes on the given wire

抛出:

ValueError -- if the given wire doesn't exist in the DAG

topological_nodes(key=None)

Yield nodes in topological order.

参数:

key (Callable) -- A callable which will take a DAGNode object and return a string sort key. If not specified the sort_key attribute will be used as the sort key for each node.

返回:

node in topological order

返回类型:

generator(DAGNode)

topological_op_nodes(key=None)

Yield op nodes in topological order.

Allowed to pass in specific key to break ties in top order

参数:

key (Callable) -- A callable which will take a DAGNode object and return a string sort key. If not specified the sort_key attribute will be used as the sort key for each node.

返回:

op node in topological order

返回类型:

generator(DAGOpNode)

node(node_id)

Get the node in the dag.

参数:

node_id (int) -- Node identifier.

返回:

the node.

返回类型:

node

nodes()

Iterator for node values.

生成器:

node -- the node.

op_nodes()

Get the list of "op" nodes in the dag.

返回:

the list of op node.

返回类型:

list[DAGOpNode]

two_qubit_ops()

Get list of 2 qubit operations.

multi_qubit_ops()

Get list of 3+ qubit operations.

longest_path()

Returns the longest path in the dag as a list of DAGNodes.

successors(node)

Returns iterator of the successors of a node as DAGNodes.

predecessors(node)

Returns iterator of the predecessors of a node as DAGNodes.

is_successor(node, node_succ)

Checks if a second node is in the successors of node.

is_predecessor(node, node_pred)

Checks if a second node is in the predecessors of node.

ancestors(node)

Returns set of the ancestors of a node.

descendants(node)

Returns set of the descendants of a node.

remove_op_node(node)

Remove an operation node n.

Add edges from predecessors to successors.

collect_runs(namelist)

Return a set of runs of "op" nodes with the given names.

For example, "... h q[0]; cx q[0],q[1]; cx q[0],q[1]; h q[1]; .." would produce the tuple of cx nodes as an element of the set returned from a call to collect_runs(["cx"]). If instead the cx nodes were "cx q[0],q[1]; cx q[1],q[0];", the method would still return the pair in a tuple. The namelist can contain names that are not in the circuit's basis.

Nodes must have only one successor to continue the run.

count_ops()

Count the occurrences of operation names.

返回:

a mapping of operation names to

the number of times it appears.

返回类型:

Mapping[str, int]

replace_block_with_op(node_block, op, cycle_check=True)

Replace a block of nodes with a single node.

参数:

  • node_block (list[DAGNode]) -- A list of dag nodes that represents the node block to be replaced

  • op (GateOperation) -- The operation to replace the block with.

  • cycle_check (bool, optional) -- check that replacing with a single node would introduce a cycle. Defaults to True.

返回:

The op node that replaces the block.

返回类型:

DAGOpNode

substitute_node_with_dag(node, input_dag, wires=None)

Replace one node with dag.

参数:

  • node (DAGOpNode) -- node to substitute.

  • input_dag (DAGCircuit) -- circuit that will substitute the node.

  • wires (list | dict) -- gives an order for qubits in the input circuit. Defaults to None.

返回:

maps node IDs from input_dag to their new node in self.

返回类型:

dict

classmethod ir_to_dag(ir)

Convert IR to DAGCircuit.

参数:

ir (list) -- gates list.

返回:

DAGCircuit corresponding to IR.

返回类型:

DAGCircuit

classmethod circuit_to_dag(circ)

Convert QuantumCircuit to DAGCircuit.

参数:

circ (QuantumCircuit) -- quantum circuit.

返回:

DAGCircuit corresponding to circuit.

返回类型:

DAGCircuit

dag_to_circuit(num_qubits=0)

Convert DAG to QuantumCircuit.

参数:

num_qubits (int) -- number of qubits in the circuit.

返回:

QuantumCircuit corresponding to DAG.

返回类型:

QuantumCircuit

get_multi_graph()

Get DAG Graph.

返回:

DAG Graph

返回类型:

rx.PyDAG

two_qubit_ops_to_dag()

Convert two-qubit gates operations into a DAG.

返回:

Directed acyclic graph containing two-bit gates.

返回类型:

DAGCircuit

edges(nodes=None)

Iterator for edge values and source and dest node.

参数:

nodes (DAGOpNode, DAGInNode, or DAGOutNode | list) -- Either a list of nodes or a single input node.

生成器:

edge --

the edge in the same format as out_edges the tuple

(source node, destination node, edge data).

wy_qcos.transpiler.cmss.circuit.dag_node module

class wy_qcos.transpiler.cmss.circuit.dag_node.DAGNode(nid=-1)

基类：object

Parent class for DAGOpNode, DAGInNode, and DAGOutNode.

class wy_qcos.transpiler.cmss.circuit.dag_node.DAGOpNode(op, qargs=(), cargs=())

基类：DAGNode

Object to represent an Gate at a node in the DAGCircuit.

参数:

  • qargs (Iterable[int])

  • cargs (Iterable[int])

op
qargs
cargs
sort_key
flag
property name

Returns the Gate name corresponding to the op for this node.

class wy_qcos.transpiler.cmss.circuit.dag_node.DAGInNode(wire)

基类：DAGNode

Object to represent an incoming wire node in the DAGCircuit.

wire
sort_key
class wy_qcos.transpiler.cmss.circuit.dag_node.DAGOutNode(wire)

基类：DAGNode

Object to represent an outgoing wire node in the DAGCircuit.

wire
sort_key

wy_qcos.transpiler.cmss.circuit.parameter module

wy_qcos.transpiler.cmss.circuit.parameterexpression module

wy_qcos.transpiler.cmss.circuit.parametervector module

wy_qcos.transpiler.cmss.circuit.utils module

class wy_qcos.transpiler.cmss.circuit.utils.RandomCircuitGen

基类：object

Random circuit generator.

Description:

Generate random circuit with depth or number of gates.

random_circuit_with_depth(num_qubits, depth, max_operands=2, measure=False, reset=False, seed=None, gate_type=1, density=0.05, outfile=None)

Generate random circuit of arbitrary size and form.

参数:

  • num_qubits (int) -- number of qubits.

  • depth (int) -- depth of circuit.

  • max_operands (int, optional) -- max qubits of the gates operation.

  • 2. (Defaults to)

  • measure (bool) -- whether to measure the qubits. Defaults to False.

  • reset (bool) -- whether to reset the qubits. Defaults to False.

  • seed (int, optional) -- random seed. Defaults to None.

  • gate_type (int) -- type of gates. 0 for random gates,

  • T. (1 for Clifford +)

  • density (float) -- the number of qubits that would be used to filled

  • gates (with)

  • circuit. (representing density of gates in the)

  • 0.3. (Defaults to)

  • outfile (str, optional) -- output file path. Defaults to None.

返回:

random ir list.

返回类型:

list

random_circuit_with_gates(num_qubits, num_gates, basis_gates=('x', 's', 'sdg', 't', 'tdg', 'z', 'h', 'rz', 'cx'), seed=None, outfile=None)

Generate a random ir.

参数:

  • num_qubits (int) -- number of qubits.

  • num_gates (int) -- number of gates.

  • basis_gates (tuple, optional) -- basis gates. Defaults to ("x", "s", "sdg", "t", "tdg", "z", "h", "rz", "cx").

  • seed (int) -- random seed.

  • outfile (str, optional) -- output file path. Defaults to None.

返回:

random ir list.

返回类型:

list

wy_qcos.transpiler.cmss.circuit.utils.is_equal(circ1, circ2)

Compare two quantum circuits.

参数:
返回:

equal or not.

返回类型:

bool

Module contents