Customers · Anonymized engagements
Where simulation, measurement, and correlation meet a qualification date.
Three anonymized engagements structured as Challenge → Approach → Measured Result → Products Used. Figures shown in [__] brackets are placeholders until they are replaced with verified data from the underlying engagement — Electro Source does not publish numbers we have not measured.
- Case 01SiC power module supplier · Automotive Tier-1 qualification
Closed a 20%+ Rth model gap and qualified against AQG 324 without an extra prototype build.
- Challenge
- Simulation and measured junction-to-case Rth diverged by more than 20% on a new SiC module. The TIM bond-line was not behaving as the datasheet assumed, and the Tier-1 customer was expecting AQG 324 v04.1 power-cycling evidence.
- Approach
- Electro Source ran ASTM D5470 characterization on the incumbent and candidate TIMs across the assembly's actual bond-line range with DynTIM, correlated the measured properties into the Flotherm module model with T3Ster structure-function data, and executed the AQG 324 profile on Power Tester with in-situ Rth monitoring.
- Measured result
- Model gap reduced from [__%] to under [__%] against measurement. AQG 324 evidence delivered in [__ weeks] on the first fixture, without an additional prototype cycle.
Products used- DynTIM
- T3Ster
- Flotherm
- Power Tester
- Case 02Solid-state lighting OEM · Outdoor architectural luminaire
Identified TIM pump-out as the driver of a [__%] flux loss and requalified with a substitute material.
- Challenge
- A high-power LED luminaire lost more of its initial luminous flux than LM-80 / TM-21 modelling had predicted after [__] hours of field operation. Package degradation and board-level TIM pump-out were both plausible.
- Approach
- T3Ster structure-function measurements separated die-level Rth drift from board-level bond-line change. DynTIM benchmarked three candidate replacement TIMs across the assembly's pressure and thickness range. FLOEFD updated the luminaire thermal model with the measured substitute.
- Measured result
- Root cause isolated to board-level TIM pump-out. Substitute TIM met the luminaire's revised luminous-maintenance target of [__ hours] with margin.
Products used- T3Ster
- DynTIM
- FLOEFD
- Case 03Hyperscale operator · AI compute rack thermal audit
Evaluated single-phase vs two-phase immersion for a [__ kW] AI rack before committing to a coolant.
- Challenge
- An AI compute rack exceeded ASHRAE TC 9.9 A2 air-cooled limits under the target workload. The operator needed to evaluate single-phase dielectric immersion against two-phase before selecting a coolant partner and CDU vendor.
- Approach
- STAR-CCM+ resolved coupled fluid, thermal, and boiling behaviour for both single-phase and two-phase candidates. Flomaster sized the facility water loop for both cases. HEEDS drove the manifold-geometry study across [__] variants.
- Measured result
- Recommended architecture met the [__ °C] junction target with [__%] pump-power margin. Coolant and CDU vendor selection made on the basis of measured pressure-drop and dry-out margin, not vendor claims.
Products used- STAR-CCM+
- Flomaster
- HEEDS
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