jobs.rqmtechnologies.com

Gate Signal Capture: Apply caller-supplied metric bounds to a bounded scalar, multichannel, or I/Q capture. Accept or reject this bounded signal capture against the caller-supplied metric rules and return every measurement and violation. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: gate signal capture, c...

Cross Provider Portability: Translate this supported OpenQASM 3 circuit to the supplied local toolchain format without silent gate substitution. Translate this supported OpenQASM 3 circuit to the supplied local toolchain format without silent gate substitution. Use when: Use when a bounded request matches rqm.studio.cross-provider-portability-request.v1 and the caller needs the declared typed work product. Do not use when: Do not use as a guarantee that a live provider will accept or execute...

Equalize Pilot Capture: Fit the bounded reference quaternion NLMS equalizer and return learned outputs. Fit a bounded quaternion NLMS equalizer to this received and desired pilot capture. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: equalize pilot capture, capture, equalize, pilot, signal, wave. Accepted...

Extract Wave Features: Return the versioned deterministic Wave-Intelligence feature vector and input digest. Convert this coordinated complex capture into the deterministic versioned Wave-Intelligence feature vector. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: extract wave features, extract, features, s...

Failed Workflow Diagnosis: Diagnose why this bounded quantum workflow failed and return supported corrective actions. Diagnose why this bounded quantum workflow failed and return supported corrective actions. Use when: Use when a bounded request matches rqm.studio.failed-workflow-diagnosis-request.v1 and the caller needs the declared typed work product. Do not use when: Do not use for unobserved provider incidents or causal hardware diagnosis. Search terms: failed workflow diagnosis, failed w...

Generate Validated Signal Fixture: Generate a deterministic bounded sine or safe-formula fixture with measured evidence. Generate this bounded sine or safe-formula signal fixture and return reproducibility, measurement, checksum, and validation evidence. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: gener...

Openqasm3 Preflight: Validate and normalize this bounded OpenQASM 3 input before downstream compilation or execution. Validate and normalize this bounded OpenQASM 3 input before downstream compilation or execution. Use when: Use when a bounded request matches rqm.studio.openqasm3-preflight-request.v1 and the caller needs the declared typed work product. Do not use when: Do not use for arbitrary languages, live provider readiness, or hardware correctness. Search terms: openqasm3 preflight, ope...

Phase Sensitive Inspection: Diagnose the phase, rotation, ordering, or convention difference between these supported operations. Diagnose the phase, rotation, ordering, or convention difference between these supported operations. Use when: Use when a bounded request matches rqm.studio.phase-sensitive-inspection-request.v1 and the caller needs the declared typed work product. Do not use when: Do not use for physical-device phase claims or arbitrary circuit analysis. Search terms: phase sensiti...

Gate Basis Decomposition: Decompose this supported circuit operation into the supplied bounded gate basis and verify the declared relation. Decompose this supported circuit operation into the supplied bounded gate basis and verify the declared relation. Use when: Use when a bounded request matches rqm.studio.gate-basis-decomposition-request.v1 and the caller needs the declared typed work product. Do not use when: Do not use for arbitrary unitary synthesis or a formal equivalence proof. Search...

Phase Aware Rewrite: Rewrite this supported circuit under the supplied phase-equivalence and target constraints. Rewrite this supported circuit under the supplied phase-equivalence and target constraints. Use when: Use when a bounded request matches rqm.studio.phase-aware-rewrite-request.v1 and the caller needs the declared typed work product. Do not use when: Do not use for undeclared global/relative phase assumptions or arbitrary rewrites. Search terms: phase aware rewrite, quantum phase aw...

Simulation Anomaly Diagnostic: Compare this bounded simulation result with the supplied expectation and anomaly rules. Compare this bounded simulation result with the supplied expectation and anomaly rules. Use when: Use when a bounded request matches rqm.studio.simulation-anomaly-diagnostic-request.v1 and the caller needs the declared typed work product. Do not use when: Do not use for hardware-error attribution or provider-quality ranking. Search terms: simulation anomaly diagnostic, quantu...

Analyze Force Disturbance Response: Analyze these bounded force and disturbance inputs against the supplied response model and criteria. Analyze these bounded force and disturbance inputs against the supplied response model and criteria. Use when: Use with bounded typed model inputs and explicit caller objectives, limits, or assertions. Do not use when: Do not use for live actuation, unmodeled environments, physical safety certification, or hardware claims. Search terms: analyze force disturb...

Check Collision Constraints: Check this bounded geometry and trajectory against the supplied collision and clearance constraints. Check this bounded geometry and trajectory against the supplied collision and clearance constraints. Use when: Use with bounded typed model inputs and explicit caller objectives, limits, or assertions. Do not use when: Do not use for live actuation, unmodeled environments, physical safety certification, or hardware claims. Search terms: check collision constraints,...

Compare Digital Twin Observations: Compare digital-twin output with mapped observations against caller tolerances. Compare digital-twin output with mapped observations against caller tolerances. Use when: Use only with the bounded typed material and caller-supplied rules. Do not use when: Do not use for physical safety certification, live control, or hardware claims. Search terms: compare digital twin observations, compare, digital, twin, observations. Accepted inputs: application/json, rqm.r...

Compute Actuator Alignment Correction: Compute a bounded actuator alignment correction from these observations and caller acceptance limits. Compute a bounded actuator alignment correction from these observations and caller acceptance limits. Use when: Use for an explicit constant additive-offset model before simulation or operator review. Do not use when: Do not use to actuate hardware or infer an undeclared physical model. Search terms: compute actuator alignment correction, compute, actuat...

Sensor frame normalization: Convert these bounded sensor observations into the supplied target frame and unit convention. Convert these bounded sensor observations into the supplied target frame and unit convention. Use when: Use only with an explicit frame graph, known frames, typed points, and one common unit. Do not use when: Do not use when transforms are unknown or physically uncalibrated, or for automatic actuation. Search terms: sensor frame normalization, normalize, sensor, frames. Ac...

Validate Closed Loop Stability: Accept or reject this bounded closed-loop model under the supplied stability criteria. Accept or reject this bounded closed-loop model under the supplied stability criteria. Use when: Use with bounded typed model inputs and explicit caller objectives, limits, or assertions. Do not use when: Do not use for live actuation, unmodeled environments, physical safety certification, or hardware claims. Search terms: validate closed loop stability, validate, closed, loo...

Validate Kinematic Dynamic Limits: Accept or reject a bounded trajectory against caller kinematic limits. Accept or reject a bounded trajectory against caller kinematic limits. Use when: Use only with the bounded typed material and caller-supplied rules. Do not use when: Do not use for physical safety certification, live control, or hardware claims. Search terms: validate kinematic dynamic limits, validate, kinematic, dynamic, limits. Accepted inputs: application/json, rqm.robotics.validate-k...

Trajectory and sensor timing validation: Validate timestamps, ordering, rates, gaps, and synchronization in this bounded trajectory or sensor trace. Validate timestamps, ordering, rates, gaps, and synchronization in this bounded trajectory or sensor trace. Use when: Use with explicit clock identity, sequences, timestamps, and caller timing rules. Do not use when: Do not use as a guarantee about clock hardware, network causality, or physical synchronization. Search terms: trajectory and sensor...

Transport Polarization Frame: Transport Jones vectors or channel operators through an explicit SU(2) frame mode. Transform these Jones vectors or channel operators between the explicitly named SU(2) frames and verify invariants. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: transport polarization frame, f...

Two Qubit Target Synthesis: Choose and verify a bounded target-basis implementation for this supported two-qubit operation under supplied objectives. Choose and verify a bounded target-basis implementation for this supported two-qubit operation under supplied objectives. Use when: Use when a bounded request matches rqm.studio.two-qubit-target-synthesis-request.v1 and the caller needs the declared typed work product. Do not use when: Do not use for arbitrary hardware optimality, calibration-aw...

Compare Waveform Captures: Compare two sample-index-aligned complex waveforms against caller-supplied rules. Compare these two bounded waveforms against the supplied alignment and numeric rules. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: wave.compare waveform captures.v1, captures.v1, signal, wave, wav...

Compare State Estimators: Compare these bounded estimator outputs against the supplied reference and objective rules. Compare these bounded estimator outputs against the supplied reference and objective rules. Use when: Use with aligned reference data, frames, timestamps, and explicit metric limits. Do not use when: Do not use without a reference or as a universal estimator-quality claim. Search terms: compare state estimators, compare, state, estimators. Accepted inputs: application/json, rq...

Estimate Fused State: Fuse these bounded synchronized sensor observations under the supplied diagonal uncertainty model and rules. Fuse these bounded synchronized sensor observations under the supplied diagonal uncertainty model and rules. Use when: Use with aligned frames, explicit variances, and bounded time skew. Do not use when: Do not use as unconstrained physical truth or when covariance assumptions are unknown. Search terms: estimate fused state, estimate, fused, state. Accepted inputs...

Tune Controller To Objectives: Tune a supported controller only within supplied bounds and safety limits. Tune a supported controller only within supplied bounds and safety limits. Use when: Use only with the bounded typed material and caller-supplied rules. Do not use when: Do not use for physical safety certification, live control, or hardware claims. Search terms: tune controller to objectives, tune, controller, to, objectives. Accepted inputs: application/json, rqm.robotics.tune-controlle...

Replay Workcell Trace: Replay this bounded workcell trace against the supplied event assertions. Replay this bounded workcell trace against the supplied event assertions. Use when: Use with bounded typed model inputs and explicit caller objectives, limits, or assertions. Do not use when: Do not use for live actuation, unmodeled environments, physical safety certification, or hardware claims. Search terms: replay workcell trace, replay, workcell, trace. Accepted inputs: application/json, rqm.r...

Reconstruct Smoothed Trajectory: Reconstruct this bounded trajectory under the supplied smoothing model and residual rule. Reconstruct this bounded trajectory under the supplied smoothing model and residual rule. Use when: Use for timestamped numeric poses when the caller accepts centered moving-average assumptions. Do not use when: Do not use to invent missing motion or certify physical feasibility. Search terms: reconstruct smoothed trajectory, reconstruct, smoothed, trajectory. Accepted in...

Optimize Trajectory To Constraints: Optimize a bounded trajectory only when speed and duration constraints pass. Optimize a bounded trajectory only when speed and duration constraints pass. Use when: Use only with the bounded typed material and caller-supplied rules. Do not use when: Do not use for physical safety certification, live control, or hardware claims. Search terms: optimize trajectory to constraints, optimize, trajectory, to, constraints. Accepted inputs: application/json, rqm.robo...

Optimize Disturbance Rejection: Tune supported control parameters against this bounded disturbance model and supplied response objectives. Tune supported control parameters against this bounded disturbance model and supplied response objectives. Use when: Use with bounded typed model inputs and explicit caller objectives, limits, or assertions. Do not use when: Do not use for live actuation, unmodeled environments, physical safety certification, or hardware claims. Search terms: optimize dist...

Trajectory instability diagnosis: Diagnose this bounded trajectory for the supplied oscillation, divergence, and stability indicators. Diagnose this bounded trajectory for the supplied oscillation, divergence, and stability indicators. Use when: Use with ordered timestamped positions, an explicit frame and unit, and caller thresholds. Do not use when: Do not use for unmodeled physical safety, causal fault attribution, or controller certification. Search terms: trajectory instability diagnosis...

Compare Planned Observed Trajectories: Compare planned and observed trajectories against caller tolerances. Compare planned and observed trajectories against caller tolerances. Use when: Use only with the bounded typed material and caller-supplied rules. Do not use when: Do not use for physical safety certification, live control, or hardware claims. Search terms: compare planned observed trajectories, compare, planned, observed, trajectories. Accepted inputs: application/json, rqm.robotics.co...

Compare Controller Responses: Compare these bounded controller responses on identical traces using the supplied objective rules. Compare these bounded controller responses on identical traces using the supplied objective rules. Use when: Use with aligned fixtures and caller-selected numeric error limits. Do not use when: Do not use for universal controller ranking or undeclared safety decisions. Search terms: compare controller responses, compare, controller, responses. Accepted inputs: appli...

Calibration quality assessment: Assess this bounded calibration dataset against the supplied residual, coverage, and consistency rules. Assess this bounded calibration dataset against the supplied residual, coverage, and consistency rules. Use when: Use with explicit expected and observed points, units, and caller thresholds. Do not use when: Do not use as universal calibration certification or evidence about unsubmitted physical conditions. Search terms: calibration quality assessment, asses...

Frame and convention validation: Validate this bounded frame graph and report unit, axis, handedness, rotation, and transform-direction violations. Validate this bounded frame graph and report unit, axis, handedness, rotation, and transform-direction violations. Use when: Use for 1-64 explicit frames before downstream geometry work. Do not use when: Do not use for physical calibration, collision safety, controller correctness, or automatic correction. Search terms: frame and convention valida...

Provider Readiness Check: Accept or reject this bounded circuit for the supplied pinned provider target and readiness rules. Accept or reject this bounded circuit for the supplied pinned provider target and readiness rules. Use when: Use when a bounded request matches rqm.studio.provider-readiness-check-request.v1 and the caller needs the declared typed work product. Do not use when: Do not use for live provider availability, credentials, queue state, hardware causality, or guaranteed executi...

Execution Plan Select: Select a supported execution plan against the supplied cost, depth, duration limits, and weights. Select a supported execution plan against the supplied cost, depth, duration limits, and weights. Use when: Use when a bounded request matches rqm.studio.execution-plan-select-request.v1 and the caller needs the declared typed work product. Do not use when: Do not use for live provider availability, credentials, queue state, hardware causality, or guaranteed execution. Sear...

Provider Target Compile: Compile this bounded circuit to the supplied pinned provider target and return compatibility evidence. Compile this bounded circuit to the supplied pinned provider target and return compatibility evidence. Use when: Use when a bounded request matches rqm.studio.provider-target-compile-request.v1 and the caller needs the declared typed work product. Do not use when: Do not use for live provider availability, credentials, queue state, hardware causality, or guaranteed e...

Simulation Result Compare: Compare these bounded simulation results using the supplied deterministic probability rules. Compare these bounded simulation results using the supplied deterministic probability rules. Use when: Use when a bounded request matches rqm.studio.simulation-result-compare-request.v1 and the caller needs the declared typed work product. Do not use when: Do not use for live provider availability, credentials, queue state, hardware causality, or guaranteed execution. Search...

Provider Result Compare: Compare these bounded provider results using the supplied normalization and difference rules. Compare these bounded provider results using the supplied normalization and difference rules. Use when: Use when a bounded request matches rqm.studio.provider-result-compare-request.v1 and the caller needs the declared typed work product. Do not use when: Do not use for live provider availability, credentials, queue state, hardware causality, or guaranteed execution. Search t...

Two Qubit Local Equivalence: Classify this supported two-qubit operation by its bounded local-equivalence class and phase context. Classify this supported two-qubit operation by its bounded local-equivalence class and phase context. Use when: Use when a bounded request matches rqm.studio.two-qubit-local-equivalence-request.v1 and the caller needs the declared typed work product. Do not use when: Do not use for arbitrary matrices, larger operations, or a formal equivalence proof. Search terms:...

Openqasm3 Repair: Repair this bounded OpenQASM 3 program only with the supplied conservative repair policy. Repair this bounded OpenQASM 3 program only with the supplied conservative repair policy. Use when: Use when a bounded request matches rqm.studio.openqasm3-repair-request.v1 and the caller needs the declared typed work product. Do not use when: Do not use when missing circuit semantics would need to be invented. Search terms: openqasm3 repair, openqasm3 repair v1, openqasm3, repair, v1,...

Optimization preservation audit: Audit candidate optimization equivalence and qualitative coupling preservation. Audit candidate optimization equivalence and qualitative coupling preservation. Use when: Use when a bounded request matches rqm.studio.preservation-audit-request.v1 and the caller needs the declared typed work product. Do not use when: Local deterministic software execution only; no remote provider or QPU access. Evidence is bounded engineering assurance, not a formal mathematical...

Managed simulator: Execute a bounded RQM Circuit IR circuit on the managed local statevector simulator. Execute a bounded RQM Circuit IR circuit on the managed local statevector simulator. Use when: Use when a bounded request matches rqm.studio.managed-simulator-request.v1 and the caller needs the declared typed work product. Do not use when: Local deterministic software execution only; no remote provider or QPU access. Evidence is bounded engineering assurance, not a formal mathematical proo...

Supported circuit equivalence: Compare two RQM Circuit IR circuits within the supported verifier scope. Compare two RQM Circuit IR circuits within the supported verifier scope. Use when: Use when a bounded request matches rqm.studio.equivalence-request.v1 and the caller needs the declared typed work product. Do not use when: Local deterministic software execution only; no remote provider or QPU access. Evidence is bounded engineering assurance, not a formal mathematical proof. No signing, cer...

Verified circuit optimization: Optimize RQM Circuit IR and return the original unless preservation is verified. Optimize RQM Circuit IR and return the original unless preservation is verified. Use when: Use when a bounded request matches rqm.studio.optimization-request.v1 and the caller needs the declared typed work product. Do not use when: Local deterministic software execution only; no remote provider or QPU access. Evidence is bounded engineering assurance, not a formal mathematical proof...

Circuit assurance report: Validate, compile, and report bounded assurance evidence for OpenQASM 3. Validate, compile, and report bounded assurance evidence for OpenQASM 3. Use when: Use when a bounded request matches rqm.studio.circuit-assurance-request.v1 and the caller needs the declared typed work product. Do not use when: Local deterministic software execution only; no remote provider or QPU access. Evidence is bounded engineering assurance, not a formal mathematical proof. No signing, ce...

Compare Pipeline Responses: Compare these two supported Wave pipelines on the supplied fixture and caller tolerances. Compare these two supported Wave pipelines on the supplied fixture and caller tolerances. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: wave.compare pipeline responses.v1, pipeline, respon...

Compile Curated Processing Recipe: Compile this curated processing recipe and return its validated pipeline and execution trace. Compile this curated processing recipe and return its validated pipeline and execution trace. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: wave.compile curated processing recip...

Optimize Processing Pipeline: Optimize this supported Wave pipeline against the supplied operation-count objective and equivalence rule. Optimize this supported Wave pipeline against the supplied operation-count objective and equivalence rule. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: wave.optimize pr...

Reconstruct Bounded Capture: Reconstruct this bounded capture under the supplied transfer assumption and verify it against the reference rules. Reconstruct this bounded capture under the supplied transfer assumption and verify it against the reference rules. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: w...

Measure Phase Drift: Measure phase drift in this bounded complex observation against the supplied reference and tolerances. Measure phase drift in this bounded complex observation against the supplied reference and tolerances. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: wave.measure phase drift.v1, drif...

Validate Reconstruction Quality: Compare this reconstruction with the supplied reference and acceptance rules. Compare this reconstruction with the supplied reference and acceptance rules. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: wave.validate reconstruction quality.v1, quality.v1, reconstruction, si...

Validate Spectral Criteria: Accept or reject this bounded capture against the caller's supplied spectral criteria. Accept or reject this bounded capture against the caller's supplied spectral criteria. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: wave.validate spectral criteria.v1, criteria.v1, signal, s...

Reconstruct Time Domain Signal: Convert these bounded frequency bins into time-domain samples and verify the caller's round-trip rule. Convert these bounded frequency bins into time-domain samples and verify the caller's round-trip rule. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: wave.reconstruct time...

Convert Capture To Spectrum: Convert this bounded complex capture into a checksummed spectral artifact with declared normalization. Convert this bounded complex capture into a checksummed spectral artifact with declared normalization. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: wave.convert capture to s...

Rotate And Validate Two Channel Frame: Rotate these two coordinated complex channels with the supplied rotor and validate caller invariants. Rotate these two coordinated complex channels with the supplied rotor and validate caller invariants. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: wave.rotate and v...

Apply Verified Phase Correction: Apply a caller-supplied phase correction and verify numeric preservation assertions. Apply this bounded phase correction and verify the supplied preservation assertions. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: wave.apply verified phase correction.v1, correction.v1, p...

Verify Wave Pipeline: Execute a bounded Wave IR pipeline and return one assertion verdict with its output. Execute and verify this bounded Wave IR pipeline against the required representation, shape, and optional round-trip assertions. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: verify wave pipeline, pi...

Fit Coupled Channel Model: Fit the bounded structured quaternion ridge model and return predictions and weights. Fit a bounded structured quaternion ridge model to these coupled channel features and targets. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: fit coupled channel model, channel, coupled, fit, mo...

Diagnose Multichannel Capture: Return bounded Wave-Intelligence lane findings and their metric evidence. Diagnose this coordinated complex capture for bounded Wave-Intelligence degradation findings without inferring a physical cause. Use when: The caller needs a bounded objective result that can directly gate or feed its next step. Do not use when: The caller needs hardware truth, causal diagnosis, an unbounded stream, or an unsupported physical claim. Search terms: diagnose multichannel capt...