6th March 2026
The Limits of First-Generation Laser Cutting
As feature sizes shrink and geometries become more complex, traditional laser cutting systems begin to reach their limits.
Modern manufacturing continues to advance. Component miniaturisation, tighter proximity and denser layouts are now becoming standard. This shift is placing new demands on legacy laser cutting systems that they were never designed to meet.
Declan Brannagan
Operations Manager
First-generation laser cutting systems were designed for much larger features and simpler geometries. Much of this underlying technology dates back decades. When applied to high-density patterns, limitations in motion control, spot size and energy delivery begin to emerge.
These limitations often lead to thermal overlap between adjacent features and degraded edge quality, particularly as features become smaller and more densely packed. For many manufacturers, these constraints have been long accepted as an unavoidable trade-off in laser processing.
But the equipment used in the industry must develop to meet the new requirements, or risk becoming the roadblock to miniaturisation.
NEVIS introduces a fundamentally new approach to process control. Instead of following a fixed toolpath with a static power profile, NEVIS synchronises motion control, laser output and beam delivery in real-time. It actively places energy exactly where and when it’s needed. We call this Energy Position Optimisation (EPO).
EPO enables dynamic adaption to real-time motion conditions including:
- Velocity changes
- Acceleration and deceleration
- Feature density and geometry
NEVIS enables interspacing that legacy systems simply cannot achieve. This represents the first real architectural shift in the laser cutting of SMT stencils in decades.
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