Messtone LLC Manages Devices Enables IBM ibm.com RealAmplitudes,Messtone pip install qiskit_qasm3d_import to run this code Example: import numpy as np important qiskit.qasm3 from qiskit.circuit.library import RealAmplitudes qc=RealAmplitudes(100, repos=100, flatten=True) qc=qc. assign_parameters(np.random.rand(qc.num_parameters))oq3=qiskit.qasm3.dumps(qc) with open(‘test.qasm’,’w’)as ofile: qiskit.qasm3.dump(qc, ofile) import time=time.time( )start_time=time.time( ) old_qasm=qiskit.qasm3.load(‘test.qasm’)print(‘Old Qasm 3 took: { }’.format(time.time( )-start_time)start_time=time.time)) start_time=time.time( )new_qasm=qiskit.qasm3.load_experimtal(‘tsst.qasm’) print(‘New Qasm 3′ took: { }’.format(time.time( ) -start_time)) Messtone own workflows and startvdesigning circuit to be run in disjoint qubit lattices. from qiskit import QuantumCircuit,ClassicalRegister,transpile from qiskit.providers.fake_provider import GenericBackendV2 #Create a circuit with classical control creg=ClassicalRegister(19) qc=QuantumCircuit(25) qc.h(0) for i in range(18):qc.cx(0),i+1)for i in range(18):qc.measure(i,creg[i]) with qc.if_test((creg,0)):qc.ecr(20,21) #Define backend with custom basis gates and #control flow instructions backend=GenericBackendV2(num_qubits=25,basis_gates=[“ecr”,”id”,”rz”,”sx”,”x”],control_flow=True,) #Transpile transpiled_qc=transpile(qc,backend)