Move qiskit_parser contents to quantum_viz

Rename and reformat the files

quantum-viz/examples/Qiskit.ipynb

@@ -336,4 +336,4 @@
    "metadata": {}
   }
  ]
-}
+}

quantum-viz/quantum_viz/qiskit_parser.py

@@ -1,30 +1,33 @@
 import json
+
 import qiskit
 
 # Pass in a quantumCircuit created using IBM's Qiskit
 def qc_parser(quantumCircuit):
-    qbitCount = quantumCircuit.num_qubits + quantumCircuit.num_ancillas # Number of qubits and ancilla bits in Qiskit
-    clbitCount = quantumCircuit.num_clbits # Number of Classical Bits
+    qbitCount = (
+        quantumCircuit.num_qubits + quantumCircuit.num_ancillas
+    )  # Number of qubits and ancilla bits in Qiskit
+    clbitCount = quantumCircuit.num_clbits  # Number of Classical Bits
     print(quantumCircuit.parameters)
-    outputCircuit = {"qubits":[], "operations":[]}
+    outputCircuit = {"qubits": [], "operations": []}
 
     qubits = []
     operations = []
-    ignore = ["barrier"] #Terms in Qiskit that don't translate to QuantumViz
+    ignore = ["barrier"]  # Terms in Qiskit that don't translate to QuantumViz
 
     # Add an id number for each qbit
     for i in range(qbitCount):
         qubits.append({"id": i})
 
-    #print(quantumCircut.h(0).label)
+    # print(quantumCircut.h(0).label)
 
     # Loop through each of the elements of the circuit.
     # Each element of quantumCircuit.data basically corresponds to the function call used to create that element and appears sequentially
     # https://qiskit.org/documentation/stubs/qiskit.circuit.QuantumCircuit.html#qiskit.circuit.QuantumCircuit.data
     for qc in quantumCircuit.data:
 
-        isMeasurement = 'false'
-        isConditional = 'false'
+        isMeasurement = "false"
+        isConditional = "false"
         out = {}
 
         # Each different type of gate has a different structure that needs to be parsed (measurement, control, etc).
@@ -33,27 +36,26 @@ def qc_parser(quantumCircuit):
         instruction = qc[0].name
         print(qc[0])
         # print("Gate " + qc[0].name)
-        out['gate'] = instruction.upper()
+        out["gate"] = instruction.upper()
 
         # Make sure it is something supported by QuantumViz
         if instruction not in ignore:
 
-            out['controls'] = []
-            out['targets'] = []
+            out["controls"] = []
+            out["targets"] = []
             controlOut = {}
-            
+
             # Last element of the array in the first element of qc is the target
             qbitTarget = qc[1][-1].index
 
             # Add isMeasurement key for when it is measurement gate.
             if instruction == "measure":
-                out['isMeasurement'] = 'true'
-                out['controls'].append({'qId': qbitTarget})
-            
+                out["isMeasurement"] = "true"
+                out["controls"].append({"qId": qbitTarget})
 
             # Is a control qubit if the array has more than one element.
             # Example:
-            # 
+            #
             # For a Qiskit command to create a controlled X Gate in ancilla 0 tied to quantum registers 0, 1, 2:
             # qc.cx(qr[0:3], anc[0])
             # You may get an element such as the following in qc[1][0]:
@@ -61,31 +63,30 @@ def qc_parser(quantumCircuit):
             # The index is the qbit that is controlled by the target. The target in this case being ancilla bit 0 and the controlled one being the 0th element
             # of the 3 Quantum Registers available.
 
-            if (len(qc[1]) > 1): 
+            if len(qc[1]) > 1:
 
-                out['isControlled'] = 'true'
+                out["isControlled"] = "true"
                 print(qc[1])
-                for i in (range(len(qc[1]) - 1)):
+                for i in range(len(qc[1]) - 1):
                     qbitControlled = qc[1][i].index
                     print(qc[1][i])
                     print(qbitControlled)
-                    if (qc[1][i].register.name == "ancilla"):
+                    if qc[1][i].register.name == "ancilla":
                         qbitControlled = qbitControlled + quantumCircuit.num_qubits - 1
-                        
+
                     controlOut["type"] = 0
                     controlOut["qId"] = qbitControlled
 
-                    out['controls'].append(controlOut.copy())
+                    out["controls"].append(controlOut.copy())
                     controlOut.clear()
 
-
-            if (qc[1][-1].register.name == "ancilla"):
+            if qc[1][-1].register.name == "ancilla":
                 qbitTarget = qbitTarget + quantumCircuit.num_qubits - 1
 
-            out['targets'].append({'qId': qbitTarget})
+            out["targets"].append({"qId": qbitTarget})
 
             # print(out)
-            operations.append(out.copy()) # Add instruction dict to output array
+            operations.append(out.copy())  # Add instruction dict to output array
             # Clear temporary dict for next loop
             out.clear()
 
@@ -93,11 +94,11 @@ def qc_parser(quantumCircuit):
     outputCircuit["operations"] = operations
     print("output:")
     print(outputCircuit)
-    jsonOutput  = json.dumps(outputCircuit, indent=2)
-    outputFile = open('quantum.json', 'w') # Outputs to "quantum.json" file
+    jsonOutput = json.dumps(outputCircuit, indent=2)
+    outputFile = open("quantum.json", "w")  # Outputs to "quantum.json" file
     outputFile.write(jsonOutput)
     outputFile.close()
 
     # Post Process:
     # I have been pasting the output from quantum.json to: https://csvjson.com/json_beautifier
-    # I select no quotes: on keys and quotes: single
+    # I select no quotes: on keys and quotes: single