AI & Foundation Models

Optimize the model and the infrastructure together.

Foundation-model training is not one optimization problem. It is a system of coupled optimization decisions — architecture, compute, scheduling and communication — that constrain one another.

The challenge

Why this decision gets combinatorially hard.

Architecture choices determine memory and communication needs; GPU allocation constrains what schedules are feasible; training schedules and gradient-communication paths interact with both. Tuning each in isolation wastes scarce, expensive compute and lengthens time-to-train. These are combinatorial decisions hiding inside a pipeline that looks like pure machine learning.

What we optimize

Concrete decisions, mapped to products.

Model & Training Configuration

Architecture configuration, hyperparameter selection, model partitioning, Mixture-of-Experts configuration and parallelism strategy.

Compute Resource Optimization

GPU and accelerator allocation, memory allocation, workload and model-shard placement, heterogeneous compute assignment.

Training & Experiment Scheduling

Pretraining, fine-tuning, evaluations, hyperparameter trials, checkpoints and scarce-cluster scheduling.

Distributed Training Optimization

Communication paths, GPU-to-GPU traffic, gradient communication and expert routing across distributed compute networks.

Composed solution

TrainIQ — jointly optimized AI infrastructure.

TrainIQ is QuGradient's Quantum AI solution for jointly optimizing foundation-model architecture, training configuration, compute resources, scheduling, placement and distributed communication — as one coupled system rather than four disconnected tools.

Powered by DesignIQ + ResourceIQ + ScheduleIQ + RouteIQ

Product composition

Composed from QuGradient products.

Highlighted products are the ones this industry composes most often. A specific engagement may use one, several or all four.

Potential business outcomes

The KPIs we optimize toward.

Training cost Time-to-train Cluster utilization Throughput Effective compute

Outcomes are benchmarked on your own data against your current approach. We don't promise unsupported percentages.

How we engage

Assessment → Proof-of-Value → Integration.

Optimization Assessment

Map the decision, objectives, constraints, data readiness and baseline to candidate products.

Proof-of-Value

Benchmark QuGradient against your current solver, process or model — on your own data.

Deploy & Integrate

Integrate the successful capability into your applications, data platforms and compute.

Bring us the problem.

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 AI infrastructure problem