The KDE Direct UAS UVC Series Electronic Speed
Controllers (ESC) are optimized for commercial and
industrial-level UAS and Multi‐Rotor applications;
incorporating futureproof technologies (such as CANbus
multiplex network serial-bus controls and telemetry)
and advanced motor control algorithms for optimal
flight performance. The ESCs are specifically tuned to
the KDE Direct UAS Multi-Rotor Brushless M otors for
peak performance and plug-and-play compatibility up to
14S LiHV (63.0V Max) input power for unprecedented
thrust generation and peak efficiency output.
High-temperature (200°C/392°F), silicon-wire power
leads and 24K gold-plated bullet connectors provided for
easy, hassle-free installation. Power and motor exit leads
are protected via rubberized-polymer grommets and
epoxy, sealing the critical internal electronics from
weather (rain and snow), dust and debris, and vibration
for safe operation in the most-demanding applications
(Ingress Protection Rating cer tified to IP66).
All UAS UVC Electronic Speed Controllers use the
highest-grade, extremely-low resistance (1.9 m) UHV
MOSFETs (80V-rated) for industry-leading performance
and maximum efficiency. 10,000+ hour, long-life and
low-ESR Aluminum Electrolytic Capacitors are used for
high-durability, while an Active Anti-Spark internal circuit
prevents initial power-on sparks and voltage shocks.
The new UAS UVC series brings to life the next-
generation of technology; including an all-Aluminum
6061-T6 case for extremely cool-running temperatures
and rugged-construction, allowing the ESCs to be used in
the full-range of demanding environments and industrial
applications without detrimental effects. Additional
hardware onboard, such as real-time and 32-bit MCU
fast-logic current and voltage monitoring, are just a few of the new innovations and
features for safe and reliable operation.
Regenerative Braking (S.R). active braking during motor deceleration phase,
providing instantaneous response to the flight controller commands and
matched-control speed to acceleration profiles (less “float during flight).
Real-Time System Monitoring internal hardware and specialized algorithms
continually monitor voltage, current, temperature, throttle signal integrity, and a
host of other critical parameters for safe and reliable operation.