Nature-published principle
The underpinning principle, published in the Nature portfolio in 2020 in work linked to ANU, cuts discharge thresholds by about 30%.
A dedicated R&D group industrialises optically-guided-discharge research into implementable systems, from feasibility to TRL-raise. Delivered by named senior engineers, fixed scope, staging from week one.
Short, decisive studies that establish measured envelopes for optically-guided discharge in the target regime. Feasibility runs 4 to 8 weeks and ends in a go or no-go, not a slide deck.
Beam shaping and optical trapping are designed together with particle replenishment, so a run holds discharge guidance continuously rather than for single shots.
Fixed measurement harnesses built around plasma diagnostics, paired with a written safety regime and interlocks. Characterisation is the first deliverable, never an afterthought.
Three tracks are maintained: deposition, sterilisation and static dissipation. A track is opened only after characterisation supports it.
Staged programmes that raise a capability from demonstration to industrial readiness, with defined measurement criteria at each technology readiness level.
A defined model that hands systems over as implementable products: C++ real-time control loops, harnesses, procedures and operating limits, all documented and transferable.
Window: Feasibility 4-8 weeks; full TRL-raise programmes longer
Team: R&D co-leads (Gene and Ottie Pratt) + engineer
Complexity: L
Indicative only. A fixed price follows a free 30-minute scope review.
Get a fixed quoteEvery programme opens with characterisation, and application work comes second, every time. Plasma diagnostics establish the baseline before any application claim is made.
Beam shaping, trapping geometry and discharge parameters are swept systematically, and results are recorded as measured envelopes.
Candidate regimes are validated against target environmental conditions before any application track proceeds.
Interlocks and operating limits are fixed before hardware runs outside the laboratory envelope.
Control ships as C++ real-time loops with documented procedures, so the engineering group can own and operate the system without the R&D team in the loop.
The underpinning principle, published in the Nature portfolio in 2020 in work linked to ANU, cuts discharge thresholds by about 30%.
Measurement harnesses convert single laboratory results into repeatable, characterised runs with recorded envelopes.
Optically-guided discharge has moved from bench to first client trials across the deposition, sterilisation and static-dissipation tracks.
More evidence in the delivery history and the complete 734-engagement register.
A shaped laser beam traps graphene microparticles in air. Discharge initiates along the trapped particle chain at a threshold about 30% below unguided discharge. The principle was published in the Nature portfolio in 2020, in work linked to the Australian National University.
Feasibility runs 4 to 8 weeks. It ends in a measured envelope for the target regime and a go or no-go decision. Full TRL-raise programmes run longer and are scoped after feasibility.
Staged movement from laboratory demonstration to industrial readiness. Each stage carries defined measurement criteria, characterisation harnesses and a written safety regime before the next stage opens.
Systems transfer as implementable products: C++ real-time control loops, measurement harnesses, operating limits and procedures, all documented. The principle is treated as workflow rather than personal credit, so handover is complete and unambiguous.
No account managers. Your message lands with the people who would deliver it, and you get a straight answer within one business day.
Book a discovery call →