Apparatuses, computer-implemented methods, and computer program products for improved global qubit positioning in a quantum computing environment

A computer-implemented method comprising:

• identifying a qubit grouping set representing a quantum program associated with a qubit set;
• generating an initial layered graph comprising a node set and an edge set arranged into one or more layers representing one or more time slices, wherein each node of the node set represents a qubit group of the qubit grouping set, wherein each edge of the edge set connects a first node in a first layer of the one or more layers to a second node in a second layer of the one or more layers, the first node comprising at least one qubit index shared with the second node;
• generating an efficient layered graph by transforming the initial layered graph utilizing a graph processing algorithm, wherein the graph processing algorithm reduces a number of edge crossings in the initial layered graph;
• determining a qubit position arrangement for the qubit set based at least in part on the efficient layered graph;
• and
• repositioning the qubit set within a quantum computing environment by executing a set of qubit manipulation instructions using the determined qubit position arrangement.

A computer program product comprising at least one non transitory computer-readable storage medium having computer program code stored thereon that, in execution with at least one processor, is configured for:

• identifying a qubit grouping set representing a quantum program associated with a qubit set;
• generating an initial layered graph comprising a node set and an edge set arranged into one or more layers representing one or more time slices, wherein each node of the node set represents a qubit group of the qubit grouping set, wherein each edge of the edge set connects a first node in a first layer of the one or more layers to a second node in a second layer of the one or more layers, the first node comprising at least one qubit index shared with the second node;
• generating an efficient layered graph by transforming the initial layered graph utilizing a graph processing algorithm, wherein the graph processing algorithm reduces a number of edge crossings in the initial layered graph;
• determining a qubit position arrangement for the qubit set based at least in part on the efficient layered graph;
• and
• repositioning the qubit set within a quantum computing environment by executing a set of qubit manipulation instructions using the determined qubit position arrangement.