Gas-static bearing systems
Direct calculation and inverse synthesis of journal, thrust, conical and combined support configurations.
Founder, Breshev Engineering · Creator of AURA Engineering Platform · Gas-Static Bearings · Rotor Dynamics · Engineering Software
Approximately 18 years across mechanical systems, precision engineering, CAD/CAE, simulation, testing and software product development — concentrated into AURA, a working platform for gas-static bearing and high-speed rotor decisions.
AURA connects direct calculation and inverse synthesis of gas-static bearings — including adjustable conical supports — to manufacturable spindle geometry, rotor dynamics and release evidence.
Its differentiation is the continuity of the engineering state: requirements, physics, geometry, dynamic response, validation basis and decision authority remain part of one traceable workflow.
The work is deliberately integrated: bearing coefficients are not treated as isolated catalogue values, and rotor results are not separated from geometry, operating state or the evidence needed for an engineering decision.
Direct calculation and inverse synthesis of journal, thrust, conical and combined support configurations.
Geometry, clearance control and load-path behaviour in adjustable non-contact spindle architectures.
Support coefficients, critical-speed screening, unbalance response, orbit and stability indicators.
Connecting the physical model to drive, shaft, tool, support and tolerance definitions that can be built.
Test-state provenance, model–measurement comparison and explicit validation envelopes.
Separating a physical screening result from the authority to freeze, release or attribute field behaviour.
Peer-reviewed research is separated from independently published technical work so that publication status and claim authority remain clear.
Problems of Friction and Wear · 2024 · gas-static supports and spindle-shaft dynamic behaviour.
Peer-reviewed engineering research · 2024.
Peer-reviewed engineering research · 2025.
Independent technical article on tolerance, measurement and correction planes; machine capability; assembly transfer; and release authority. Not presented as peer reviewed.
Public methodology and product record for gas-static bearing synthesis, rotor workflows and evidence-gated decisions.
What can a warm or factory-test result prove after clearance, thermal state and boundary conditions change?
How should bearing stiffness and damping provenance travel into rotor-dynamic and release decisions?
How do tolerances, balance planes and assembly state alter the authority of a component-level result?
The proprietary solver remains closed. The public surface makes methodology, reference cases, evidence status and decision boundaries inspectable through DOI records and a versioned validation registry.
Compare one defined bearing or rotor case with assumptions and provenance recorded.
Translate requirements, operating state and measurement evidence into explicit acceptance boundaries.
Align configurations and conditions, compare results and identify the next highest-value test.
Preserve apparatus, repeatability, planes, configuration and what the result is allowed to support.
Connect a controlled engineering calculation or evidence object to an internal toolchain through a scoped interface.
Develop a benchmark, application note or validation case with clear authorship and claim boundaries.
Machine type, speed range, support architecture, available geometry and the decision the evidence must support are enough to start a focused technical conversation.