Architecture Overview
Advanced wireless power technologies engineered for efficient, reliable, and scalable energy transfer — from fundamental physics to production-ready systems.
Wireless energy transfer relies on different physical mechanisms. SiCore Dynamics researches and develops multiple energy transfer technologies to meet different power levels, operating conditions, and application scenarios.
The industry-standard solution for high-efficiency short-range power transfer. Widely adopted in Qi charging and industrial docking systems.
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Key Research Areas
Enables longer air-gap and more flexible alignment compared with conventional inductive coupling — ideal for autonomous systems.
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Key Research Areas
Transfers energy through electric fields rather than magnetic fields — advantageous in metal-rich or constrained environments.
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Key Research Areas
Capacitive Wireless Power Transfer (CWPT) transfers energy through high-frequency electric fields rather than magnetic fields. Instead of using coils and magnetic flux, it utilizes paired conductive electrodes to form a capacitive coupling path, enabling contactless power delivery across a small air gap.
Its ultra-thin structure, low magnetic interference, and compatibility with metal-rich environments make CWPT a promising solution for compact electronics, medical devices, rotating systems, and next-generation embedded applications where conventional inductive charging may not be ideal.
Delivers continuous power while machines are in motion — removing the need to stop for charging.
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Key Research Areas
Dynamic Wireless Power Transfer (DWPT) enables continuous energy delivery to moving vehicles and robotic systems without requiring them to stop for charging. By dynamically activating power segments or tracking the receiver position in real time, the system maintains efficient wireless energy transfer throughout the entire movement process.
This technology is designed for autonomous mobile robots (AMRs), AGVs, conveyor systems, and industrial automation, enabling uninterrupted operation, higher productivity, and reduced downtime in next-generation intelligent facilities.
Figure Explanation
(a) System Overview
The mobile robot carries a receiver coil while the transmitter is embedded beneath the travel path. High-frequency alternating current flowing through the transmitter generates a magnetic field, which induces electrical current in the receiver coil as the robot moves above it.
(b) Single Transmission Conductor
A single transmission conductor creates an alternating magnetic field around the cable. As the receiver passes through this field, electrical energy is induced in the pickup coil. This configuration is simple but provides a relatively limited magnetic coverage.
(c) Cascaded Transmission Conductors
Multiple transmission conductors are arranged in parallel to create a larger and more uniform magnetic field. The merged magnetic field improves coupling stability, extends the effective charging region, and enables more reliable wireless power transfer for continuously moving vehicles.
Engineering the magnetic path behind efficient wireless power.
Our magnetic platform maximizes coupling efficiency, shapes flux with precision, and minimizes leakage — delivering stable wireless power across real-world alignment and gap variation.
Our Capabilities
01
TX/RX coil geometries engineered for target power, frequency, and air-gap requirements.
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02
Ferrite and shielding structures that guide flux, cut loss, and protect surrounding systems.
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03
Field shaping for higher coupling, cleaner transfer, and improved power density.
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04
Tolerance design so docking variation in position and angle does not break charging.
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05
Electromagnetic simulation that validates flux distribution before hardware is built.
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A complete power path from DC input to regulated output — engineered for conversion efficiency, thermal stability, reliability, and scalable wireless energy systems.
01
The inverter converts DC input into high-frequency AC power, providing the excitation required for efficient wireless energy transfer. Different inverter topologies are selected based on power level, efficiency, switching frequency, and system architecture.
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02
The matching network tunes the transmitter and receiver into resonance, minimizing reactive power while maximizing transfer efficiency. Different compensation topologies are selected according to power level, coupling conditions, and application requirements.
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03
The rectifier converts the received high-frequency AC power into usable DC power. Advanced rectification technologies improve conversion efficiency while reducing conduction losses and heat generation.
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04
The DC/DC stage regulates the rectified voltage into the required output level for battery charging or system power supply. Different converter topologies provide flexible voltage conversion for various applications.
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05
High-frequency power devices determine the switching performance, efficiency, thermal behavior, and power density of the wireless power system. Wide-bandgap semiconductor technologies enable higher switching frequencies and more compact system designs.
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Intelligent Control
A closed-loop control architecture that senses, decides, and protects across the TX/RX link — keeping resonance locked, power stable, and operation safe under changing load and alignment.
Control Intelligence Capabilities
01
Continuously tracks and locks onto the optimal resonant frequency to maximize power transfer efficiency.
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Supports constant power, constant voltage, and constant current modes to meet different charging needs.
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Detects whether a receiver is present and evaluates its status to ensure safe and efficient operation.
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Identifies foreign metal objects on the charging surface to prevent heating and ensure user safety.
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Monitors temperature of key components in real time to prevent overheating and protect the system.
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Dynamically adjusts control strategy and output power based on load changes and system conditions.
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Intelligently switches and coordinates multiple transmitter coils for seamless power coverage and efficiency.
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Provides reliable communication between transmitter, receiver, battery, and host systems.
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Electromagnetic compatibility for industrial and regulated environments.
Learn moreThermal design that sustains continuous duty cycles.
Learn moreArchitecture choices that hold up over long operating life.
Learn moreMechanical integration for docks, housings, and platforms.
Learn moreProtection and fail-safe behavior designed into the stack.
Learn moreProduction-ready design for scale, yield, and consistency.
Learn morePlatform Outcomes
Optimized transfer across physics, magnetics, and power conversion.
Consistent delivery under alignment, load, and environmental variation.
Control, protection, and system design built for continuous operation.
A layered architecture that grows from modules to full platforms.
Ready for robotics, automation, medical, agriculture, and autonomous systems.
Coordinate batteries, charging stations, and fleet operations through adaptive charging algorithms and real-time system intelligence.
Enabling seamless docking solutions that eliminate manual plug-in charging for autonomous machines.
Designed to fit your product — charging solutions that integrate naturally into existing machines, from prototype to mass production.
Ready to integrate the Wireless Energy Platform into your product?
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