Optimization product · Scheduling & Sequencing
ScheduleIQ.
When should activities happen, and in what sequence? ScheduleIQ orders and times activities and resources under precedence, capacity and time-window constraints, from production lines to workforce rosters to compute clusters.
The decision problem
When should activities happen, and in what sequence?
Scheduling is among the most studied and most stubborn NP-hard families: sequencing jobs, rostering people, and timetabling activities against hard constraints produce search spaces that defeat exhaustive methods. As horizons lengthen and constraints multiply, the gap between a workable schedule and the best one widens — and it widens fastest exactly where utilization matters most.
Capabilities
What ScheduleIQ does.
Representative NP-hard problem families
Recognized mathematics beneath the decision.
ScheduleIQ recognizes these families in your problem and compiles each to the formulation and solver that fits: classical, AI, quantum-inspired, quantum or hybrid.
Where it applies
Reused across industries.
Composition
Rarely used alone.
Scheduling rarely stands alone: ResourceIQ decides which resource does the work, RouteIQ how it moves between activities, and DesignIQ the structure being scheduled. Schedule and route are often one coupled decision.
Hardware-independent execution
The API stays stable when the hardware changes.
You call ScheduleIQ in terms of your decision such as objectives, constraints and data, not in terms of a solver or a quantum architecture. The problem is captured in GradientIR and compiled to whatever executes it best: classical mathematical optimization, CPUs, HPC, GPUs, AI-based optimization, quantum-inspired methods, quantum annealing, gate-based quantum processors, or hybrid classical-quantum systems. When the execution technology evolves, your application does not have to change. We don't claim a quantum computer is in the loop when it isn't.
Have a scheduling, sequencing or rostering problem?
Bring us the decision, your objectives and constraints, and a representative slice of the data. We'll benchmark against your current approach and tell you whether a proof-of-value makes sense.
Discuss it with QuGradient →