Klyvora Klyvora

Custom OEM Power Distribution Unit Exporter & Exporters

High-Density Intelligent Rack PDU Systems Designed for Enterprise Hyperscale Data Centers, Edge Nodes, and Next-Generation AI GPU Compute Clusters.

The Paradigm Shift in Rack-Level Power Architecture

Modern cloud architectures, AI workload accelerators, and high-performance computing (HPC) nodes demand unprecedented density at the rack level. Traditionally, power distribution was treated as a passive mechanism. Today, Intelligent Power Distribution Units (iPDUs) act as the nervous system of the server rack cabinet, coordinating thermal, power, and environmental telemetry.

As standard racks transition from 10kW workloads to massive 40kW, 60kW, and even 100kW high-density liquid-cooled systems, OEM configurations must dynamically handle higher currents, triple-phase loads, and transient voltage spikes. Global businesses face the multi-layered challenge of managing disparate electrical frameworks—varying from North American NEMA standards to EMEA IEC architectures—while seeking single-pane-of-glass management systems.

Klyvora Node Technologies Ltd. is situated at the intersection of high-density hardware supply chains and customized electrical engineering, helping network architects source custom-built OEM power solutions that align perfectly with their global operational requirements.

OEM Tailoring Vectors

Our OEM manufacturing frameworks allow operators to custom-define critical parameters:

  • Receptacle Layouts: Dynamic mixing of high-retention IEC C13, C19, and the newer C39 hybrid sockets.
  • Intelligent Network Controllers: Built-in hot-swappable dual-IP Gigabit Ethernet controllers supporting SNMP v3, Modbus, and Redfish APIs.
  • Physical Profiles: Ultra-thin 0U vertically integrated form factors or horizontal 1U/2U rack configurations.

Advanced Computing & Power Integration

Established in 2016, Klyvora Node Technologies Ltd. has evolved from an enterprise hardware system integrator into a premier high-performance computing infrastructure manufacturer. We optimize high-density AI GPU server platforms and the specialized power delivery architectures they mandate.

Operating from a modern production and assembly facility (320㎡ building area), our integrated R&D team implements end-to-end quality control workflows. Our product line bridges the gap between processing silicon and clean, redundant power delivery.

USD 22M Max Export Revenue
180+ R&D Engineers
860+ Supply Partners
42 QA Professionals

Operational facilities at Klyvora Node Technologies validation centers, facilitating thermal verification, system burn-in, and hardware stress diagnostics.

Technological Framework & Power Capabilities

Explore our multi-tiered engineering matrix designed to bridge global localized grid capabilities with advanced data center applications.

Localized Grid Adaptability

We engineer custom OEM PDU solutions tailored to regional electrical inputs. For North America, we construct systems for 120V, 208V, and 415V three-phase delta/wye configurations. For EMEA and APAC markets, we design for standard 230V/400V grids, utilizing robust, certified cords and terminal plugs like Hubbell NEMA and Mennekes IEC.

Intelligent Outlet-Level Monitoring

By integrating billing-grade metering ICs, our custom smart PDUs provide ±1% measurement accuracy. Administrators gain precise real-time analytics for current (A), voltage (V), power factor, active power (W), and apparent power (VA) per individual outlet, enabling accurate co-location tenant billing and capacity planning.

Global Safety & Compliance

Every OEM power distribution system is designed for compliance with strict global standards. Our regulatory pathways ensure products satisfy UL 62368-1, CE Mark, FCC Class A, RoHS, and WEEE guidelines, keeping your installations aligned with international safety codes and insurance liabilities.

Industrial Application Scenarios

How our customized power architecture solves critical engineering and operational constraints across specific physical environments.

1. High-Density AI GPU Clusters (Deepseek / LLM Training)

In modern training environments utilizing nodes like the Dell Poweredge AI R750/R760 or specialized custom multi-GPU servers, power consumption surges instantaneously during tensor calculations. Standard PDUs risk overloading due to transient current spikes. Our custom-engineered OEM PDUs incorporate hydraulic-magnetic circuit breakers that resist temperature-induced premature tripping, ensuring continuous uptime under sustained 100% workloads.

2. Containerized and Modular Edge Data Centers

Edge nodes deployed in telecom infrastructure or manufacturing environments operate in constrained spaces with minimal localized oversight. Here, remote manageability is critical. Our smart OEM solutions feature environmental sensor ports (daisy-chainable up to 8 sensor probes) to monitor temperature, humidity, water leakage, and door status directly through the PDU interface, dispatching SNMP traps or SMTP alerts at the first sign of anomaly.

3. Legacy Datacenter Upgrades (Retrofitting Standard Cabinets)

Upgrading legacy infrastructure to support modern cloud compute servers (such as the FusionServer 1288H V5 or xFusion 2288H V6) often encounters space restrictions inside server enclosures. Our ultra-slim 0U vertically mounted PDU chassis feature a low-profile design that minimizes obstruction of server exhaust fans. This optimizes airflow dynamics while routing clean power directly adjacent to the server PSUs.

Next-Gen Power Innovation Roadmap

Our engineering division continuously iterates on next-generation power infrastructure. Key developmental vectors for our future product releases include:

  • Solid-State Circuit Breakers: Transitioning from mechanical components to solid-state topologies, achieving microsecond-level fault interruption.
  • AI-Powered Load Balancing: Implementing machine learning algorithms on our local controllers to predict phase imbalances and recommend manual workload realignments.
  • Direct-to-Chip Liquid Cooling Integration: Co-developing hybrid PDU racks that combine low-voltage power busbars with coolant manifold distributions.

The Future of Rack-Level Energy Efficiency

Efficiency standards like ISO/IEC 30134-2 place strict compliance limits on Power Usage Effectiveness (PUE) metrics. Legacy PDUs convert a portion of incoming power into waste heat, adding to cooling overhead. By utilizing low-resistance internal copper busbars and high-grade silver-alloy contacts in our outlet relays, Klyvora engineered power strips minimize internal power dissipation.

Furthermore, our advanced firmware allows sequential power-on delay configuration for individual outlets. This prevents massive in-rush currents during cold restarts, shielding the upstream transformer infrastructure from stress and protecting system components from premature degradation.

Frequently Asked Questions

Read our comprehensive engineering answers regarding rack power customization, load testing, and exporter integration.

What is the primary operational advantage of hydraulic-magnetic circuit breakers in high-density PDUs?
Unlike thermal breakers, hydraulic-magnetic breakers operate purely based on electromagnetic magnetic force generated by line current. This design makes their trip-point immune to ambient air temperature variations within the server rack enclosure. Consequently, even under high thermal stress in 45°C rack hot aisles, the breaker will not trip prematurely, maintaining maximum availability for high-load server runs.
Can I customize the outlet configuration (e.g. mix of C13, C19, C39) on a 0U OEM vertical PDU?
Yes, our custom OEM program allows complete flexibility in receptacle configurations. We support standard IEC C13, IEC C19, and the universal C39 outlets. The C39 design accommodates both C14 and C20 plugs in a single outlet, helping data center architects optimize rack configurations for changing hardware footprints.
How does the smart controller firmware integrate with existing DCIM software?
Our intelligent PDU controllers utilize built-in Web servers that support standard enterprise protocols. This allows integration with DCIM (Data Center Infrastructure Management) platforms via SNMP (v1, v2c, v3), Modbus TCP, and JSON-based Redfish RESTful APIs. This architecture supports remote power recycling, phase balancing alerts, and firmware updates across the cluster network.
What quality assurance and burn-in tests are performed before export?
Our dedicated QA team, consisting of 42 professionals, runs every unit through a rigorous validation process. This includes ground bond resistance tests, high-potential (Hi-Pot) insulation tests, and operational burn-in cycles under full electrical loads. This protocol ensures all integrated switches, relays, and remote communication modules operate reliably prior to dispatch.
How do you handle localized grid compliance for international markets?
We customize incoming cord sets and internal electrical layouts to align with local utility grids. This includes single-phase and three-phase configurations for North America (60Hz, NEMA or California-style inputs) and EMEA/APAC regions (50Hz, IEC/Mennekes and BS-standards). Every exported batch is manufactured to meet required certifications such as UL, CE, RoHS, and FCC.