changed parametric 2-qubit gate parameter name

Author: Leonardo Ranzani

QGL/BasicSequences/RB.py

@@ -261,7 +261,7 @@ def TwoQubitRB(q1: Channels.LogicalChannel,
                cliff_type: str = 'std',
                showPlot: bool = False,
                suffix: str = "",
-               add_cals: bool = True,swap: bool = False) -> str:
+               add_cals: bool = True,parametric: bool = False) -> str:
     """
     Two qubit randomized benchmarking using 90 and 180 single qubit generators
     and ZX90.
@@ -303,7 +303,7 @@ def TwoQubitRB(q1: Channels.LogicalChannel,
     seqsBis = []
     for seq in seqs:
         seqsBis.append(reduce(operator.add,
-                              [TwoQubitClifford(q2, q1, c, kind=cliff_type,swap)
+                              [TwoQubitClifford(q2, q1, c, kind=cliff_type,parametric)
                                              for c in seq]))
 
     #Add the measurement to all sequences

QGL/Cliffords.py

@@ -376,11 +376,11 @@ def Cx2(c1, c2, q1, q2, kind='std'):
     #Create the pulse block
     return seq1 * seq2
 
-def entangling_seq(gate, q1, q2,swap=False):
+def entangling_seq(gate, q1, q2,parametric=False):
     """
     Helper function to create the entangling gate sequence
     """
-    if swap==False:
+    if parametric==False:
         if gate == "CNOT":
             return ZX90_CR(q2, q1)
         elif gate == "iSWAP":
@@ -397,15 +397,15 @@ def entangling_seq(gate, q1, q2,swap=False):
             return [X90(q1),Z90(q1) * Z90m(q2),iSWAP(q1,q2),X90(q2),iSWAP(q1,q2),Z90(q1),
                 Y90(q2),X(q2),Z90m(q1) * Z90m(q2),iSWAP(q1,q2),Y90(q1),X(q1)]
 
-def TwoQubitClifford(q1, q2, cliffNum, kind='std',swap=False):
+def TwoQubitClifford(q1, q2, cliffNum, kind='std',parametric=False):
 
     if kind.upper() not in clifford_map.keys():
         raise ValueError(f"Unknown clifford type: must be one of {clifford.map.keys()}.")
 
     c = C2Seqs[cliffNum]
     seq = [Cx2(c[0][0], c[0][1], q1, q2, kind=kind)]
     if c[1]:
-        seq += entangling_seq(c[1], q1, q2,swap)
+        seq += entangling_seq(c[1], q1, q2,parametric)
     if c[2]:
         seq += [Cx2(c[2][0], c[2][1], q1, q2, kind=kind)]
     return seq