qamomile.quri_parts.materializer

Materialize circuit-family IR as QURI Parts circuits.

Overview¶

Classes¶

BinOpKind [source]¶

class BinOpKind(enum.Enum)

Attributes¶

• ADD

• DIV

• FLOORDIV

• MIN

• MOD

• MUL

• POW

• SUB

EmitError [source]¶

class EmitError(QamomileCompileError)

Error during backend code emission.

Constructor¶

def __init__(self, message: str, operation: str | None = None)

Initialize a backend emission diagnosis.

Parameters:

Attributes¶

• operation

GateKind [source]¶

class GateKind(Enum)

Classification of gates for emission.

Attributes¶

• CH

• CP

• CRX

• CRY

• CRZ

• CX

• CY

• CZ

• H

• MEASURE

• P

• RX

• RY

• RZ

• RZZ

• S

• SDG

• SWAP

• T

• TDG

• TOFFOLI

• X

• Y

• Z

QamomileQuriPartsTranspileError [source]¶

class QamomileQuriPartsTranspileError(QamomileCompileError)

Exception raised for errors in the Qamomile to QURI Parts conversion process.

QuriPartsGateEmitter [source]¶

class QuriPartsGateEmitter

GateEmitter implementation for QURI Parts.

Emits individual quantum gates to QURI Parts circuits.

QURI Parts parametric circuits accept angles in dictionary form: {parameter: coefficient, CONST: constant_offset}

Constructor¶

def __init__(self, phase_carrier: int | None = None) -> None

Initialize the emitter.

Parameters:

Attributes¶

• measurement_mode: MeasurementMode QURI Parts always uses STATIC measurement (sampler handles it).

Methods¶

append_gate¶

def append_gate(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    gate: Any,
    qubits: list[int],
) -> None

Append a gate to the circuit.

Since circuit_to_gate returns None, this is only called with QURI Parts native gates which can be extended into the circuit.

circuit_to_gate¶

def circuit_to_gate(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    name: str = 'U',
) -> Any

QURI Parts doesn’t support converting circuits to gates.

Returns None to signal that manual decomposition should be used.

combine_symbolic¶

def combine_symbolic(self, kind: BinOpKind, lhs: Any, rhs: Any) -> 'dict[Parameter, float]'

Combine two angle operands as a QURI Parts linear-combination dict.

QURI Parts’ Parameter is Rust-backed and exposes no Python arithmetic operators (param * float raises TypeError). The only supported representation for parametric angles is the linear-combination dict consumed by LinearMappedUnboundParametricQuantumCircuit.add_Parametric*, which fundamentally cannot express non-linear combinations (parameter × parameter, parameter ** n, etc.). This override produces such a dict for every linear case and raises a clear QamomileQuriPartsTranspileError for non-linear cases instead of letting the underlying TypeError bubble up.

Parameters:

Returns:

'dict[Parameter, float]' — A fresh dict[Parameter, float] representing the linear 'dict[Parameter, float]' — combination of the operands.

Raises:

• QamomileQuriPartsTranspileError — When the operation cannot be expressed as a linear combination (e.g. param * param, param / param, param ** n, param // n, division by zero in the symbolic path).

create_circuit¶

def create_circuit(
    self,
    num_qubits: int,
    num_clbits: int,
) -> 'LinearMappedUnboundParametricQuantumCircuit'

Create a new QURI Parts parametric circuit.

Note: QURI Parts does not support classical bits in circuits. The num_clbits parameter is accepted for interface compatibility but is not used.

create_parameter¶

def create_parameter(self, name: str) -> 'Parameter'

Create a QURI Parts parameter and register it with the circuit.

emit_barrier¶

def emit_barrier(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubits: list[int],
) -> None

No-op: QURI Parts doesn’t support barrier instructions.

emit_ch¶

def emit_ch(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    control: int,
    target: int,
) -> None

Emit controlled-Hadamard gate using decomposition.

Follows the shared CH_DECOMPOSITION recipe from qamomile.circuit.transpiler.decompositions.

emit_cp¶

def emit_cp(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    control: int,
    target: int,
    angle: float | Any,
) -> None

Emit controlled-Phase gate using decomposition.

Follows the shared CP decomposition. The concrete case replaces its final exp(iθ/4) RZ(θ/2) pair with the exact native U1(θ/2). The parametric case has no native ParametricU1, so it emits RZ plus the missing scalar factor on the dedicated phase carrier.

emit_crx¶

def emit_crx(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    control: int,
    target: int,
    angle: float | Any,
) -> None

Emit controlled-RX gate using decomposition.

CRX(ctrl, tgt, θ) = RZ(tgt, π/2) CNOT(ctrl, tgt) RY(tgt, -θ/2) CNOT(ctrl, tgt) RY(tgt, θ/2) RZ(tgt, -π/2)

emit_cry¶

def emit_cry(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    control: int,
    target: int,
    angle: float | Any,
) -> None

Emit controlled-RY gate using decomposition.

Follows the shared CRY_DECOMPOSITION recipe from qamomile.circuit.transpiler.decompositions. Inlined here because QURI Parts parametric angles use dict representation.

emit_crz¶

def emit_crz(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    control: int,
    target: int,
    angle: float | Any,
) -> None

Emit controlled-RZ gate using decomposition.

Follows the shared CRZ_DECOMPOSITION recipe from qamomile.circuit.transpiler.decompositions. Inlined here because QURI Parts parametric angles use dict representation.

emit_cx¶

def emit_cx(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    control: int,
    target: int,
) -> None

Emit CNOT (controlled-X) gate.

emit_cy¶

def emit_cy(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    control: int,
    target: int,
) -> None

Emit controlled-Y gate using decomposition.

Follows the shared CY_DECOMPOSITION recipe from qamomile.circuit.transpiler.decompositions.

emit_cz¶

def emit_cz(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    control: int,
    target: int,
) -> None

Emit controlled-Z gate.

emit_global_phase¶

def emit_global_phase(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    angle: float | Any,
    carrier: int | None = None,
) -> None

Synthesize exp(i * angle) I exactly.

A concrete phase reuses an arbitrary existing qubit through U1(2a) RZ(-2a) = exp(ia) I. Symbolic and zero-qubit phases use the configured clean carrier because QURI Parts has no ParametricU1 or circuit-level phase operation.

Parameters:

Raises:

• EmitError — If an explicit carrier is invalid, or if symbolic or zero-qubit emission has no valid dedicated clean carrier.

emit_h¶

def emit_h(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubit: int,
) -> None

Emit Hadamard gate.

emit_measure¶

def emit_measure(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubit: int,
    clbit: int,
) -> None

No-op: QURI Parts circuits don’t support measurement gates.

Measurement is handled separately by samplers/estimators.

emit_p¶

def emit_p(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubit: int,
    angle: float | Any,
) -> None

Emit Phase gate using U1.

P(θ) = U1(θ) = diag(1, e^{iθ}). For non-parametric angles we use the native U1 gate which is mathematically identical to the Phase gate. For parametric angles we use ParametricRZ plus a scalar phase on the dedicated clean carrier that restores P(θ) = exp(iθ/2) RZ(θ) exactly.

emit_pauli_rotation¶

def emit_pauli_rotation(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubits: list[int],
    pauli_ids: list[int],
    angle: float | Any,
) -> None

Emit one native QURI Parts Pauli-string rotation.

Parameters:

emit_reset¶

def emit_reset(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubit: int,
) -> None

Raise because QURI Parts circuits do not support reset.

emit_rx¶

def emit_rx(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubit: int,
    angle: float | Any,
) -> None

Emit RX rotation gate.

emit_ry¶

def emit_ry(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubit: int,
    angle: float | Any,
) -> None

Emit RY rotation gate.

emit_rz¶

def emit_rz(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubit: int,
    angle: float | Any,
) -> None

Emit RZ rotation gate.

emit_rzz¶

def emit_rzz(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubit1: int,
    qubit2: int,
    angle: float | Any,
) -> None

Emit RZZ gate using ParametricPauliRotation.

emit_s¶

def emit_s(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubit: int,
) -> None

Emit S (phase) gate.

emit_sdg¶

def emit_sdg(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubit: int,
) -> None

Emit S-dagger (inverse S) gate.

emit_swap¶

def emit_swap(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubit1: int,
    qubit2: int,
) -> None

Emit SWAP gate.

emit_t¶

def emit_t(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubit: int,
) -> None

Emit T gate.

emit_tdg¶

def emit_tdg(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubit: int,
) -> None

Emit T-dagger (inverse T) gate.

emit_toffoli¶

def emit_toffoli(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    control1: int,
    control2: int,
    target: int,
) -> None

Emit Toffoli (CCX) gate.

emit_x¶

def emit_x(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubit: int,
) -> None

Emit Pauli-X gate.

emit_y¶

def emit_y(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubit: int,
) -> None

Emit Pauli-Y gate.

emit_z¶

def emit_z(
    self,
    circuit: 'LinearMappedUnboundParametricQuantumCircuit',
    qubit: int,
) -> None

Emit Pauli-Z gate.

gate_controlled¶

def gate_controlled(self, gate: Any, num_controls: int) -> Any

Create controlled version of a gate.

Returns None since QURI Parts doesn’t support this natively.

gate_inverse¶

def gate_inverse(self, gate: Any) -> Any

Return the inverse of a concrete QURI Parts circuit.

Parameters:

Returns:

Any — Inverted QURI Parts circuit when inverse_circuit can handle gate; otherwise None so callers can fall back to Qamomile-level decomposition.

gate_power¶

def gate_power(self, gate: Any, power: int) -> Any

Create gate raised to a power.

Returns None since QURI Parts doesn’t support this natively.

supports_for_loop¶

def supports_for_loop(self) -> bool

QURI Parts does not support native for loops.

supports_gate_inverse¶

def supports_gate_inverse(self) -> bool

Report QURI Parts circuit inverse support.

Returns:

bool — True because gate_inverse can invert concrete bool — QURI Parts circuits. The backend still reports no reusable bool — gate support, so inverse blocks normally use the bool — transpiler-level native path rather than the shared bool — blockvalue_to_gate path.

supports_if_else¶

def supports_if_else(self) -> bool

QURI Parts does not support native if/else.

supports_while_loop¶

def supports_while_loop(self) -> bool

QURI Parts does not support native while loops.

QuriPartsMaterializer [source]¶

class QuriPartsMaterializer

Convert verified circuit IR to QURI Parts’ linear circuit model.

Attributes¶

• capabilities: CircuitCapabilities Declare QURI Parts’ circuit-IR capabilities.

Methods¶

materialize¶

def materialize(
    self,
    program: CircuitProgram,
    parameter_names: tuple[str, ...] = (),
) -> MaterializedCircuit[Any]

Build a QURI Parts circuit and static-measurement metadata.

Parameters:

Returns:

MaterializedCircuit[Any] — MaterializedCircuit[Any]: QURI circuit, parameters, and static measurement-to-qubit mapping.

Raises:

• EmitError — If runtime control, reset, or transformed calls remain.

• QamomileQuriPartsTranspileError — If a parameter expression is not linear.