Network Design
Topology, network slicing, frequency/channel configuration and network partitioning.
Telecom & Computer Networks
Network build-out, spectrum and placement, resource scheduling and traffic engineering all reduce to graph, assignment and routing problems at a scale that punishes exhaustive search.
The challenge
As networks densify, slice and get more dynamic, the gap between a workable configuration and the best one widens — and it widens fastest where load is highest. Topology, allocation, scheduling and routing decisions are coupled, so optimizing them separately leaves capacity and latency on the table.
What we optimize
Topology, network slicing, frequency/channel configuration and network partitioning.
Spectrum allocation, channel assignment, VNF/CNF placement, edge-compute allocation and bandwidth allocation.
Radio resources, edge workloads, maintenance and compute tasks.
Traffic engineering, communication paths, network routing and dynamic load balancing.
Product composition
Highlighted products are the ones this industry composes most often. A specific engagement may use one, several or all four.
Potential business outcomes
Outcomes are benchmarked on your own data against your current approach. We don't promise unsupported percentages.
How we engage
Map the decision, objectives, constraints, data readiness and baseline to candidate products.
Benchmark QuGradient against your current solver, process or model — on your own data.
Integrate the successful capability into your applications, data platforms and compute.
Share the decision, your objectives and constraints, and a representative slice of the data. We'll map it to the right products and tell you whether a benchmark or proof-of-value makes sense.
Discuss your network optimization problem →