Dynamic quantum computing system selection and quantum program compilation

A computing device, comprising:

• a memory;
• and
• a processor device coupled to the memory to:
• access a first plurality of programming instructions written in a first quantum programming language;
• select a first quantum computing system from a plurality of quantum computing systems based on an attribute of the first quantum computing system;
• determine that the first quantum computing system is unable to execute programming instructions written in a first quantum programming language and is able to execute programming instructions written in a second quantum programming language or a third quantum programming language;
• access preferable translation configuration information that indicates that a translation from the first quantum programming language to a second quantum programming language takes less processor utilization than a translation from the first quantum progra mming language to a third quantum programming language;
• generate, based at least in part on the preferable translation configuration information and a translation structure corresponding to the first plurality of programming instructions, a second plurality of programming instructions from the first plurality of programming instructions;
• select a simulator of a plurality of different simulators, the simulator corresponding to the first quantum computing system;
• provide an output file compiled from the second plurality of programming instructions to the simulator;
• and
• simulate, by the simulator, an execution of the output file on the first quantum computing system.

A non-transitory computer-readable storage medium that includes executable instructions to cause a processor device to:

• access a first plurality of programming instructions written in a first quantum programming language;
• select a first quantum computing system from a plurality of quantum computing systems based on an attribute of the first quantum computing system;
• determine that the first quantum computing system is unable to execute programming instructions written in a first quantum programming language and is able to execute programming instructions written in a second quantum programming language or a third quantum programming language;
• access preferable translation configuration information that indicates that a translation from the first quantum programming language to a second quantum programming language takes less processor utilization than a translation from the first quantum programming language to a third quantum programming language;
• generate, based at least in part on the preferable translation configuration information and a translation structure corresponding to the first plurality of programming instructions, a second plurality of programming instructions from the first plurality of programming instructions;
• select a simulator of a plurality of different simulators, the simulator corresponding to the first quantum computing system;
• provide an output file compiled from the second plurality of programming instructions to the simulator;
• and
• simulate, by the simulator, an execution of the output file on the first quantum computing system.