Abstract
NFTDVE-1.0 is a modular open-hardware research instrument designed to answer a basic engineering question:
Can a proposed non-invasive physical excitation produce measurable, repeatable, and independently verified transport through a standardized phantom under controlled laboratory conditions?
The system is deliberately designed as an experimental measurement platform rather than a therapeutic device.
NFTDVE-1.0 combines a replaceable phantom cartridge, controlled fluid circuit, independently measured excitation system, optical tracer measurement, pressure and flow instrumentation, temperature monitoring, vibration measurement, synchronized data acquisition, calibration procedures, artifact rejection, automated experimental sequencing, and a standardized data structure.
The central design principle is that NFTDVE must be capable of demonstrating that an apparent transport effect is real, repeatable, quantitatively measurable, and distinguishable from vibration, thermal convection, bubble motion, optical artifacts, pump-induced flow, electrical noise, or ordinary diffusion.
The platform therefore does not assume that acoustic transport, vortex transport, microbubble transport, pressure-gradient transport, optical stimulation, electromagnetic effects, or any other proposed mechanism will work.
Instead, each mechanism becomes an interchangeable experimental condition.
The same phantom, fluid, instrumentation, geometry, environmental conditions, calibration procedure, control experiment, and data-reduction method are used for competing mechanisms.
The result is intended to be a common laboratory testbed rather than another single-purpose treatment architecture.
NFTDVE-1.0 incorporates selected engineering concepts previously disclosed in the Caldwell TDC portfolio, including the Caldwell Adaptive Ocular Transport Discovery Platform (AOTDP-1.0), Universal Acoustic Access Platform (UAAP), GCI-274 Neuro-Clearance Research Architecture, GCI-v3.1 acoustofluidic platform, VMR Titan, MMRA, FDMS, Temporal Artifact Inspection Instrument, POAV-Clamp, CAPCS, CMRS, CNG-Loop and related measurement/control architectures.
Those earlier disclosures are explicitly identified so researchers can locate and examine them independently on Technical Disclosure Commons.
The new contribution of NFTDVE is not simply combining those inventions.
The new contribution is the creation of a standardized experimental architecture that uses controlled interchangeable modules, independent measurement channels, artifact controls, calibrated reference conditions, repeatability requirements, and a common data protocol to determine whether a transport mechanism produces a genuine measurable result.
Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.
Recommended Citation
Caldwell, Michael Victor Mr., "NFTDVE-1.0 CALDWELL NON-INVASIVE FLUID & TRANSPORT DISCOVERY / VALIDATION ENGINE A Modular, Quantitative, Artifact-Resistant Open-Hardware Research Instrument for Discovering, Comparing, and Reproducing Non-Invasive Transport Mechanisms in Standardized Phantom Systems", Technical Disclosure Commons, ()
https://www.tdcommons.org/dpubs_series/11334