Applications

Powering the systems that define the future.

Across industries, the same constraint is emerging: power delivery is limiting system performance, efficiency, and scalability. EnaChip’s technology is designed to address this constraint across the most demanding and fastest-growing markets.

AI & Data CentersAdvanced Packaging & ChipletsEdge & Compact SystemsElectrification

AI & Data Centers

Higher compute density with lower cooling and energy burden.

Advanced Packaging

Localized regulation for chiplets and 3D integration.

Edge Systems

Smaller, lighter, more capable devices in tighter footprints.

Electrification

More compact and scalable power electronics beyond compute.

Where the constraint shows up first

One platform aligned to the systems where power now shapes performance.

The same bottleneck appears in different forms: more compute density, more localized regulation, smaller form factors, and higher efficiency across the stack. Integrated magnetics can support power management, signal conditioning, sensing, harvesting, and actuation within a single semiconductor-compatible platform.

AI & Data Center Infrastructure

Power density is increasing at an unprecedented rate. EnaChip enables more efficient power conversion and delivery so operators can increase compute density while reducing energy usage and cooling requirements.

Higher performance per wattLower cooling burden

Advanced Packaging & Chiplets

Traditional board-level power delivery cannot keep up with chiplets and 3D integration. EnaChip enables power to move into the package where localized, high-speed regulation becomes possible.

Localized regulation3D integration readiness

Edge & Compact Systems

Smaller systems need lighter, thinner, and more efficient power components. EnaChip supports higher functionality inside constrained form factors.

Smaller footprintHigher efficiency

Broader Power Electronics & Electrification

The same integrated magnetic platform can extend into adjacent systems that require compact conversion, filtering, and actuation.

Compact power electronicsScalable system integration

Expanding the role of magnetics across the system

Beyond power delivery — one platform, many system roles.

EnaChip’s magnetics platform extends beyond traditional power delivery. Select a capability to see where integrated magnetic functionality can create new system value.

Most immediate application

Power Management & Voltage Regulation

Power delivery is the most immediate and impactful application of EnaChip’s technology. By enabling compact, high-efficiency magnetic components, the platform supports next-generation DC/DC voltage regulation and integrated power management systems.

Compact high-efficiency magnetic componentsIntegrated DC/DC voltage regulationCloser point-of-load power conversion

A unified platform

Power, signal, sensing, and actuation can be co-designed—not stitched together from disconnected parts.

What connects these applications is a single underlying capability: the integration of magnetic functionality directly at the package and chip level. Instead of relying on multiple discrete components, EnaChip enables a unified platform where power, signal, sensing, and actuation can be designed together. This convergence reduces system complexity, improves performance, and unlocks new classes of devices that were previously impractical.

Power Regulation Compact magnetic structures for localized conversion and voltage regulation closer to the point of load.
Signal Conditioning Integrated filtering and suppression functions designed alongside the rest of the system.
Magnetic Sensing Field-to-electrical conversion capabilities that fit within package and chip-level architectures.
Micro-Actuation Actuation functions co-designed with control electronics instead of added later as disconnected parts.

Toward a broader magnetic platform

The same need is appearing everywhere: a fundamentally better way to deliver power and magnetic functionality across the system.

EnaChip is positioned at the center of this transition.