Proprietary Engineering Frameworks

Scientific Design Methodology

Six Proprietary Analytical Pillars

Our design process is built on six independent analytical pillars — ensuring that every engineering decision is validated against international standards, physical phenomena, and failure mode libraries.

CB-SCC: Standards Compliance Checklist

Standards Compliance Checklist

"Find the compliance gap at the design stage — not at the certification stage."

A structured audit framework evaluating PCB design and documentation against applicable international standards covering PCB design, insulation coordination, reliability prediction, and product safety. Clause-level traceability. Cross-standard conflict identification.

CB-SCC | Compliance Coverage Evaluation
0%
Compliance Depth
0%
Traceability
What the Client Receives
  • Compliance status across applicable international standards
  • Clause-level findings traceable to specific standard and section
  • Cross-standard conflict identification
CB-Thermal: Thermal Analysis Framework

Thermal Analysis Framework

"Every degree above junction limit is a reliability debt — CB-Thermal finds it before it compounds."

Complete junction-to-ambient thermal chain analysis. Maps every Rth node per heat-generating component. Identifies hotspot risks, validates thermal via arrays, estimates worst-case junction temperatures.

CB-Thermal | Junction-to-Ambient Chain °C
0°C
Estimated Tj Max
0
Thermal Nodes
What the Client Receives
Rth Chain Mapping
  • Full junction-to-ambient Rth chain per heat-generating component
Risk Assessment
  • Hotspot risk assessment — placement, copper spreading, power density
Simulation Data
  • Worst-case junction temperature estimates at full load and maximum ambient
CB-LBF: Loss Budget Framework

Loss Budget Framework

"Fight for the Fractions — efficiency is won or lost in the decimals."

Full-spectrum loss analysis framework. Every watt of loss has an address — CB-LBF locates each one across conduction, switching, magnetics, gate drive, and PCB parasitics. Scanner Principle: no verdicts, pure visibility.

CB-LBF | Loss Mechanism Breakdown %
What the Client Receives
  • Full-spectrum loss scan — every mechanism identified and quantified
  • Itemised loss register per mechanism and per operating point
  • Scanner Principle report — verdict-free, engineered for the team to act on
CB-GAF: Gap Analysis Framework

Gap Analysis Framework

"Circuit Brilliance operates where the standards stop — and the engineering begins."

Maps the boundary between auditable standards and 18 years of engineering judgement. Identifies physical phenomena that standards often miss across all four domains.

CB-GAF | Gap Type Intensity per Domain
Gap Type
Description
GAP TYPE 1 — Invisible Phenomena
Physical phenomena that cause real failures and are acknowledged by no standard.
GAP TYPE 2 — Judgement Gaps
Standard thresholds that cannot determine safety for a specific design's operating conditions.
GAP TYPE 3 — Interaction Gaps
Failure modes from combinations of individually compliant elements.
CB-FMEA: Failure Mode & Effects Analysis

Failure Mode & Effects Analysis

"Generic FMEA finds generic failures. CB-FMEA finds the ones that take down your board."

Two-tier, power-electronics-specific FMEA framework. Tier 1 maps failure propagation paths across the full system. Tier 2 scores failure mode severity at component level.

CB-FMEA | Risk Distribution RPN
TIER 1 — System-Level Failure Mapping
Maps failure propagation paths across topology, gate driver chain, isolation barriers, and protection logic.
TIER 2 — Component-Level Analysis
SOD scores and RPN rankings calibrated to switching frequency, voltage class, and thermal profile.
What the Client Receives
  • System-level failure propagation map (Tier 1)
  • Component-level risk register (Tier 2) — SOD scores and RPN rankings
  • Structured report for design reviews and audits
CB-CRAFT: Design Execution Framework

Comprehensive Review and Assured Fabrication Technology

"CB-CRAFT reflects the design as implemented. It does not pass or fail. It observes, records, and verifies."

CB-CRAFT is Circuit Brilliance's PCB Design Execution Framework — the stage where every upstream framework output (SCC, LBF, Thermal, GAF, FMEA) converges into a verified, manufacturable PCB deliverable.

Nine-Stage Execution Flow

Phase 1: Analysis
Phase 2: Design
Phase 3: Verification
01 Layout Intelligence Extraction

Reading the schematic for layout-critical information.

02 Layout-Specific Client Inputs

Mechanical constraints, surface finish, layer budget.

03 Layer Stack & Design Rules

Isolation, copper weight, and design rule implementation.

04 Component Placement

Switching loops, gate drive proximity, thermal zone compliance.

05 Routing

Power trace sizing, Kelvin sense routing, ground zone discipline.

06 DFM + DFA

Design for Manufacturability and Assembly verification.

07 DFT — Design for Testability

Test points, programming access, serviceability.

08 DFS — Design for Safety

Creepage, clearance, isolation, safety marking.

09 Release for Prototyping

Final package generation, ODB++, and manufacturing release.

Framework Ecosystem Position

CB-CRAFT does not determine requirements — it verifies their implementation. CB-SCC determines compliance requirements — CB-CRAFT checks the PCB delivers them. CB-LBF determines current values — CB-CRAFT sizes the copper to carry them. CB-Thermal determines thermal zones — CB-CRAFT verifies placement honours them.

Domain
Specific Execution Focus
EV Powertrain
HV isolation, SiC/GaN switching loops, HVIL, automotive DFx
Battery Management
AFE sense matching, stack voltage isolation, Kelvin routing
Renewable Energy
Common-mode loops, GFDI, outdoor creepage, LCL filter
Power Converters & SMPS
Primary switching loop, Y-cap placement, isolation slot
What the Client Receives
CB-CRAFT Review Record

every checkpoint reviewed across all nine stages, observations recorded

Framework Summary Report

one-page confirmation the design underwent CB-CRAFT review

Design Rationale Note

switching loop area, isolation strategy, copper weight rationale

Gerber Package

fabrication-ready files verified under CB-CRAFT before release

Apply a Proprietary Analytical Framework.

Our analytical approach eliminates hardware guesswork and reduces revision cycles through rigorous physical validation at the design stage.