In private development

Engineer data infrastructure
with confidence.

From business requirements to architecture decisions, workload simulation, and performance optimization — across existing databases, custom in-house systems, and hybrid infrastructure.

  1. Understand
  2. Design
  3. Simulate
  4. Validate
  5. Optimize
Architecture workbench

One workspace from requirements
to a validated decision.

Select a scenario to see how the planned workbench moves from constraints to candidates to a validation plan. Every value shown is illustrative and tagged by its evidence level.

QueryMedic/Architecture workbench
Concept preview
Scenarios
Evidence levels
AssumptionSupplied or inferred input, not verified. EstimatedCalculated from stated assumptions. Needs measurementCannot be known without a benchmark.
Scenario 01

Event ingestion platform for a connected-device fleet

Requirements and constraints

Step 1

    Workload analysis

    Step 2

      Architecture candidates

      Step 3

      Capacity and scalability estimate

      Step 4

      Validation plan

      Step 5

        Recommendation with evidence

        Step 6

          Illustrative scenario contentConcept preview. Not output from a running system, and not a measured result.
          Beyond database selection

          Existing, in-house, or both.
          Evaluated on the same terms.

          Choosing a database is one possible outcome. QueryMedic is designed to reason about the whole data layer — including systems an organization builds itself — and to treat each option as a candidate, not a default.

          Existing technologies

          Evaluate established relational, NoSQL, analytical, and distributed databases against the actual workload, not against their marketing. PostgreSQL, ScyllaDB, ClickHouse, Redis, and MongoDB are examples of what the platform may assess, not the limit of it.

          In-house infrastructure

          Reason about proprietary storage engines, custom data routers, metadata layers, and organization-specific systems — including whether building one is justified by the requirements at all.

          Hybrid architectures

          Explore combinations of existing and custom components across cloud, edge, and on-premises environments, with data routing, consistency, and operational cost treated as first-class design inputs.

          Core capabilities

          Six capabilities,
          one engineering context.

          Each capability reads from and writes back to the same structured model of the system, so a capacity estimate can cite the workload assumption it depends on. All are planned capabilities in active design.

          Business and system understanding

          Transform business requirements, technical documentation, architecture specifications, and system constraints into structured engineering context.

          Architecture intelligence

          Evaluate architecture alternatives, system boundaries, data flows, consistency models, and implementation trade-offs side by side.

          Workload modeling and simulation

          Model realistic workloads, traffic growth, failure scenarios, and resource demands before any of them reach production.

          Infrastructure and capacity planning

          Estimate compute, storage, network, replication overhead, scaling thresholds, and operational constraints with the basis for each number attached.

          Performance and reliability engineering

          Analyze bottlenecks, configurations, execution plans, observability data, and fault-tolerance strategies in systems that already exist.

          Architecture evolution

          Evaluate future scaling requirements, architectural migrations, technical debt, and the point at which a system should be redesigned rather than tuned.

          How it works

          Understand. Model. Explore.
          Validate. Optimize.

          Five stages, each producing something the next can check. Select a stage to see what goes in and what comes out.

          Understand

          Works with
            Produces

            Evidence-driven AI engineering

            AI-assisted reasoning.
            Engineering-grounded validation.

            A language model is good at reading messy requirements and reasoning about trade-offs. It is not a benchmark. QueryMedic is designed so that the two never get confused.

            Claude is intended to assist with

            • Understanding complex business and technical requirements
            • Architectural reasoning across alternatives
            • Evaluating engineering trade-offs
            • Analyzing technical documentation and specifications
            • Generating hypotheses and validation strategies
            • Explaining technical recommendations in reviewable language
            Assumption

            Stated by the team or inferred by the model. Reviewable, unverified.

            Estimated

            Calculated deterministically from assumptions. Correct only if they are.

            Needs measurement

            Unknowable from the spec. Requires a benchmark, trace, or failure drill.

            An AI-generated prediction is never presented as a measured result.

            Deterministic components are intended to provide

            • Capacity calculations with their inputs attached
            • Workload models and growth projections
            • Resource estimates for compute, storage, and network
            • Benchmark orchestration and result capture
            • Configuration validation against known constraints
            • Evidence tracking from assumption to measurement
            Built for complex infrastructure

            The decisions it is
            being designed for.

            Intended use cases for the platform. None of these describe a completed deployment; they describe the kind of engineering question QueryMedic is being built to help answer.

            Share a real use case
            • Designing a new SaaS data platformfrom requirements, before the first schema exists.
            • Scaling an existing PostgreSQL-based architecturewhen tuning stops being enough.
            • Evaluating high-throughput distributed storagefor ingestion, time-series, and retention workloads.
            • Reviewing custom in-house storage systemsand the assumptions baked into them.
            • Planning multi-datacenter infrastructurewith replication, erasure coding, and failure recovery in scope.
            • Comparing hybrid data architecturesthat mix existing databases with proprietary components.
            • Identifying potential scalability bottlenecksbefore growth makes them expensive.
            • Preparing safe architecture migrationswith validation steps and rollback paths.
            Privacy and deployment philosophy

            Architecture details
            are sensitive by default.

            System specifications, capacity numbers, and failure modes are among the most sensitive documents an engineering organization holds. The platform is being designed with that as a starting assumption, not an afterthought.

            Private development workflows

            Designed for teams working on unreleased systems, with analysis scoped to what they choose to share.

            Controlled access to specifications

            Technical documents and architecture inputs are intended to be shared deliberately, per analysis, rather than ingested wholesale.

            Separation of sensitive system information

            Planned separation between structural models used for reasoning and the raw operational data that informs them.

            Privacy-conscious analysis

            Planned support for working from abstracted workload profiles where raw traces cannot leave the organization.

            Self-hosted components

            A future possibility under evaluation for deterministic analysis and benchmark orchestration.

            These describe design intent for a product in private development. No security certification, compliance status, data-retention guarantee, or private-inference capability is claimed.

            Currently in private development

            Building a more intelligent way
            to engineer data infrastructure.

            QueryMedic is currently in private development. Interested in shaping the future of AI-assisted infrastructure engineering? Get in touch.

            Email founder@querymedic.xyz
            No signup form, no product accounts, no visitor tracking. Contact is by email only.