Predictive Power Control
Rate-of-change monitoring and adaptive baselining help reduce brownouts, stabilize load transitions, and preserve uptime under real-world conditions.
Nashoba Technologies is developing the Nashoba Intelligent Control System (NICS), an embedded hardware-level control layer that monitors and adapts system behavior in real time across power, thermal, and communication domains.
Positioned above the battery management system (BMS) and below the operating system (OS), NICS interprets telemetry and applies policy-based control decisions to preserve runtime stability, system health, and operational continuity.
NICS is available for early evaluation, pilot planning, and integration discussions with qualified hardware, battery, embedded systems, and industrial technology partners.
NICS is designed as an always-on system health control layer that interprets battery, thermal, power, and wireless conditions, detects trend shifts early, and applies deterministic control decisions without relying on cloud infrastructure or deep operating system modification.
Rate-of-change monitoring and adaptive baselining help reduce brownouts, stabilize load transitions, and preserve uptime under real-world conditions.
Early event detection with controlled step-down and recovery behavior helps prevent oscillation, latch-up, and unstable behavior during variable workloads.
Continuous signal monitoring with policy-based communication decisions supports environments where stability, uptime, and controlled power use matter more than peak throughput.
NICS is intended for platforms where runtime loss, thermal buildup, unstable load behavior, or communication inconsistency can directly affect performance and continuity.
Preserve usable operating time by detecting and responding to avoidable system stress before it becomes performance loss.
Recognize early thermal buildup and apply controlled response before sustained heat causes deeper instability.
Interpret multiple telemetry sources together rather than reacting to isolated values without context.
Support evaluation across tablets, embedded systems, battery platforms, and power-sensitive hardware moving toward pilot deployment.
NICS has moved beyond concept-stage development. Current work is focused on transitioning validated control logic into a dedicated embedded control module for repeatable evaluation and partner integration.
NICS has been developed and validated using real hardware, live sensor inputs, system loads, and firmware-driven control behavior.
Current validation includes active monitoring of power behavior, thermal conditions, and system response under changing real-world operating conditions.
NICS supports communication with external systems, including CAN-based platforms, enabling broader system-level interaction and control.
NICS development continues to advance toward broader system compatibility, external hardware communication, and pilot-ready integration.
NICS now communicates with CAN-based devices, enabling interaction with external battery management systems and embedded hardware platforms.
Integrated monitoring of power, thermal, and wireless behavior continues to be refined for dynamic operating conditions.
NICS is being developed as a layered control system positioned above the BMS and below the OS for platform-agnostic behavior.
NICS is structured as a reusable control architecture that separates telemetry intake, system health interpretation, and device-specific policy actions. This supports integration across multiple hardware platforms without rewriting the core control engine for each system.
Collects and normalizes telemetry from battery systems, onboard sensors, wireless subsystems, host signals, and external interfaces.
Evaluates system health using battery, thermal, power, and communication inputs with trend analysis and classification.
Defines how each platform responds to changing conditions through runtime-preservation and stability-focused actions.
NICS is intended for organizations evaluating advanced power, thermal, communication, or system-level control in embedded and lithium-powered platforms.
Support evaluation and integration planning for rugged, industrial, mobile, and power-sensitive hardware platforms.
Provide a control-layer approach for platforms that need deterministic behavior across telemetry, power, and communication domains.
Enable system-level interaction above the BMS for runtime preservation, telemetry interpretation, and platform health management.
NICS is currently positioned for pilot evaluation, partner integration discussions, and early deployment planning across embedded, mobile, battery, and power-sensitive platforms.
Assess NICS behavior across runtime, thermal, power, and communication conditions using real hardware and application-driven test scenarios.
Work with OEM, ODM, battery, and embedded partners to align interfaces, telemetry access, and control policy requirements.
Support early pilot discussions for platforms where runtime stability, thermal resilience, and system-level control improve continuity.
NICS is available for early evaluation, pilot planning, and integration discussions across embedded, battery, and power-sensitive platforms.
If your team is exploring power control, thermal behavior, battery telemetry, CAN integration, or embedded system resilience, an early technical conversation is welcome.