How outcome-driven PSU customization reduces risk, lowers TCO, and ensures first-pass integration.
Catalogue PSUs often fail in tightly integrated, harsh, or unusual electrical systems, causing redesigns, delays, or reduced performance. Our customization turns early system needs into manufacturable solutions that cut integration risk, speed time-to-market, and justify NRE for high value programs.
Complex systems usually impose demanding requirements: transient behavior, EMI margins in constrained environments, thermal path tradeoffs, and lifecycle/qualification requirements. Catalogue power supplies are not designed to meet every situation. The typical consequences are late R&D surprises, extended qualification, field fixes, and hidden lifecycle costs.
Attribute | Typical outcome with catalogue PSU | Outcome with targeted customization |
|---|---|---|
Spec clarity | Customer focus on limited specs and/or overspecification (‘just in case’) | Outcome with targeted customization |
Integration risk | Integration rework during subsystem test | First-Time-Right integration, reduced rework |
Time-to-Market | Delays from iterative fixes | Shorter qualification path with defined gates |
Economics | Lower unit cost but higher lifecycle cost | NRE + optimized unit cost and lower TCO |
We convert system level needs into validated designs via four disciplined stages. We focus on the system needs in power and project constraints — working with customers to balance technical goals, budgets and volumes.
Capture functions, constraints, standards/norms, compliancy (e.g. RoHS, REACH, SEMI F47)
We’re a power sparring partner — together we built a better product than the customer first imagined.
We work cross functionally to convert system constraints into validated designs that meet technical and commercial objectives. Here we list some real-world cases where our Discovery resulted in significant deviation from the initial request.
Actual customer ask | What we found in Discovery | Final solution (design change) | DMU outcome (benefit/metric) |
|---|---|---|---|
Stand-alone PFC and DC DC units for legacy reasons. | Reuse of either unit was virtual impossible due to architecture choices. PSUs split had little hard technical rationale. | Integrated but modular PSU, with forward-compatibility sub-modules to enable reuse in future. | Reduced interfaces, volume, and costs. Reuse across projects; reduced future NRE and faster follow on projects |
High‑accuracy current readout (~0.5%) | User only cared about crude current usage and monitor was not process critical. | Omitted high-cost sensing with 2 to 5% accuracy solution. | Unit cost reduced sharply while no operational downgrade. |
Profinet interface requested | Customer only specified bus name, not protocol details or EMI susceptibility | EtherCAT add-on in same hardware and small firmware changes; clarified protocol and galvanic isolation needs | Protocol clarity, backward and forward compatibility of interface |
“Best of specs” | Client specified best-of-class across all parameters (low ripple, low cost, tiny form factor, fast ramp). | Facilitated formal trade-off session, produced prioritized acceptance criteria | Clear acceptance tests; avoided scope creep and late change orders |
Late scope changes with tight schedule with | Program deadlines were fixed; late feature requests threatened delivery | Parallel workstreams, MVP milestones matching customer validation plan | Met program milestones; manageable risk—emphasize this in procurement discussions |
We don’t deliver what the customer ask for, but what they need.
Besides hard technical specs, projects are driven by NRE, amortization, contract risk and standards compliance. We found addressing below challenges early are a necessity for any successful project.
We emphasise here that these aspects must also make sense from our business perspective. Concretely, this means we only engage in projects that utilize our building blocks
and added value, and that we adhere to concurrent engineering principles.
Our processes absorb scope changes while keeping deadlines through parallel teams and reuse of proven building blocks.
For high‑performance or safety‑critical systems where catalogue parts miss system constraints (EMC, thermal, sequencing). Value is maximized by targeted, gradual changes that fix real system pain points, avoid over‑specification and enable reuse across programs.
Through a four‑stage process: Discovery (constraints, transients, EMC, thermal, standards), Concept validation (simulation + reference blocks), Prototype & qualification (EMC, thermal cycling), and Production & support (process transfer, SLAs, burn-in, lifecycle management).
Users may over- or underspecify functional specs and focus only on voltage/current, name a bus without protocol, or omit required standards (EMC, shock, materials). Other examples are to overspecify accuracy, or combine contradictory “best‑of” requirements that conflict technically and commercially.
Run an NRE amortization: Units to pay back = NRE / (unit price delta). Include hard cost drivers (PFC complexity, EMI testing, thermal solutions, certification), assess expected lifetime volumes, IP ownership needs, schedule tolerance, and propose milestone payments and acceptance tests to allocate risk.
Use upfront risk assessment, clear acceptance criteria, decision gates (spec freeze, prototype, qualification), concurrent workstreams, MVP staging (defer non‑critical system tests to later integration when safe), and reuse of modular cores and test rigs to shorten iterations and absorb scope changes.
Key tradeoffs include ramp vs ripple (filter cost vs transient behavior), efficiency vs reliability, accuracy vs cost, and the cost/time impact of meeting higher standards and extensive EMI mitigation.
We partner with our customers to engineer and manufacture high-quality power supplies.
Through close collaboration, we tailor each solution to meet exact application requirements—ensuring reliability, performance, and seamless integration into advanced systems.
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