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CONE CLUTCH SOLUTIONS DIFC Ltd (CCS)

CONE-CLUTCHES for Automotive - Robots - Industrial 👉Pending Patent 2026901295: Electronically Actuated Multi-Cone Clutch Platform for Industrial, Marine, Aerospace, Robotics, Mining, Rail, and Renewable Energy Applications; and

👉Pending Patent 2026901148: A motor-assisted constant-mesh multi-cone selector transmission system for electric vehicles enables

Solving the Hardest Problems in Torque Transfer for Automotive - Robots & Industrial Applications

Modern electric and industrial powertrains demand far more from their driveline components than traditional clutch and transmission systems can deliver. High torque, high RPM, rapid response, thermal stability, compact packaging, and electronic control are now essential — yet legacy clutch technologies were never designed for these conditions.
Cone Clutch Solutions (CCS) 84% gain delivers a new generation of electronically actuated multi‑cone clutch systems engineered to overcome the limitations of conventional friction, dog‑clutch, synchroniser, and hydraulic systems.
Our patented multi‑cone architecture solves the critical problems that OEMs and Tier‑1 suppliers face today.
  • The Problems We Solve
  • High Torque at High RPM (10,000–30,000 rpm)
  • The Problem
  • Electric motors and modern industrial drives operate at extremely high rotational speeds.
  • Traditional clutches — flat‑plate, dog‑clutch, synchroniser rings — suffer from:

  • Torque loss
  • Excessive slip
  • Thermal overload
  • Rapid wear
  • Harsh engagement
  • Our Solution
  • CCS multi‑cone systems provide:
  • 84% higher torque capacity per unit axial force (independently validated)
  • Stable operation at 10,000–30,000 rpm
  • Low‑slip, low‑heat engagement
  • High durability under continuous duty cycles
  • This enables smaller actuators, smaller housings, and higher sustained torque.
  • Thermal Overload & Heat Management
  • The Problem
  • High‑speed engagement generates extreme heat.
  • Conventional clutches cannot dissipate heat fast enough, leading to:

  • Burnt friction surfaces
  • Shift delays
  • Torque derating
  • Component failure
  • Our Solution
  • CCS integrates:
  • Directed lubrication jets
  • Cooling channels
  • Thermal sensors
  • Adaptive lubrication flow
  • This maintains cone interface temperatures below 200°C, even during repeated high‑RPM shifts or heavy industrial loads.
  • Slow, Harsh, or Inconsistent Engagement
  • Slow, Harsh, or Inconsistent Engagement
  • The Problem
  • Dog clutches and synchroniser rings rely on mechanical indexing and friction synchronisation.
  • This causes:

  • Harsh engagement
  • Gear clash
  • Slow response
  • Noise and vibration
  • Limited high‑RPM capability
  • Our Solution
  • CCS uses electronically controlled axial force for:
  • Smooth, precise engagement
  • Millisecond‑level response
  • Predictable, repeatable performance
  • Quiet operation
  • Seamless integration with motor control
  • This is essential for EVs, robotics, aerospace, and high‑precision machinery.
  • Inefficient Torque Transfer & Energy Loss
  • Inefficient Torque Transfer & Energy Loss
  • The Problem
  • Conventional clutches waste energy through:

  • Slip
  • Heat
  • Mechanical drag
  • Poor synchronisation
  • Our Solution
  • CCS systems deliver:
  • Low‑slip engagement
  • Motor‑assisted synchronisation
  • Regenerative braking integration
  • Torque fill to eliminate torque interruption
  • This improves efficiency in EVs by 5–12% and reduces energy consumption in industrial systems.
  • Bulky, Heavy, and Complex Driveline
  • Bulky, Heavy, and Complex Driveline Components
  • The Problem
  • Hydraulic systems, planetary gearsets, and dual‑motor architectures add:

  • Weight
  • Cost
  • Packaging constraints
  • Maintenance complexity
  • Our Solution
  • CCS multi‑cone systems are:
  • Compact
  • Lightweight
  • Mechanically simple
  • Electronically controlled
  • Easy to integrate into EV drive units and industrial housings
  • This reduces system mass and improves packaging flexibility.
  • Limited Control & No Digital Integration
  • Limited Control & No Digital Integration
  • The Problem
  • Traditional clutches cannot integrate with:

  • Motor controllers
  • Inverters
  • AI‑based slip prediction
  • Real‑time torque management
  • Our Solution
  • CCS is built for the digital era:
  • Electronic actuation
  • Sensor‑based feedback
  • AI‑enhanced slip prediction
  • Full integration with motor and inverter control
  • This enables smarter, safer, more efficient torque transfer.

AUTOMOTIVE APPLICATIONS ELECTRIC VEHICLE CONE CLUTCHES (EVCC)

  • Electric Vehicles (EVs)
  • Multi‑speed transmissions
  • High‑RPM traction motors
  • Regenerative synchronisation
  • Torque fill for seamless shifts
  • Improved acceleration, towing, and efficiency
  • Hybrid & Performance Vehicles
  • High‑torque launch control
  • Rapid ratio changes
  • Thermal stability under repeated shifts

INDUSTRIAL APPLICATIONS CONE CLUTCH SOLUTIONS (CCS)

Robotics & AutomationPrecision actuationOverload protectionCompact packaging
Marine & AerospaceCorrosion‑resistant or lightweight variantsHigh‑RPM mechanismsLow‑slip engagement for safety‑critical systems
Mining & Heavy MachineryDust‑sealed, high‑durability designsHigh torque density for low‑speed crawl
Rail & Renewable EnergyHigh‑torque couplersWind turbine pitch/yaw controlTidal and hydro energy systems

THE CCS ADVANTAGE

One Platform - Unlimited Applications

  • Our patented multi‑cone clutch systems deliver:

  • Higher torque
  • Faster response
  • Lower heat
  • Greater efficiency
  • Longer life
  • Digital control
  • Multi‑sector adaptability
  • CCS is redefining torque transfer for the electrified world.
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