Bonding a sensor is the easy part. Placement, encapsulation, data definition and interpretation are what decide whether the system actually answers your question.
Aerodynamic loads on a blade appear as surface pressure. But blades are long, strongly curved composite structures — conventional pressure taps are limited in point density, installation cost and surface conformity.
A 0.3 mm piezoresistive film changes the order of magnitude: without altering the blade profile, a single sheet carries 4096 points at 7.6 × 8.1 mm pitch, producing a real pressure field rather than isolated readings.
Compare measured pressure with CFD and structural simulation to validate boundary conditions.
Identify concentration sections and extreme conditions for structural review.
Long-term installation tracking how pressure signatures evolve over service time.
Data retained around anomalies to support root cause analysis afterwards.
Define sections, point density, range and monitoring period; produce the layout drawing and cable routing.
Custom film geometry and array pattern, adhesive layer and surface protection engineered for the duty cycle.
Surface preparation, bonding, curing, acquisition setup and baseline calibration with an initial data snapshot.
Platform visualisation, condition comparison, report delivery and support during design reviews.
Grip force control, assembly surface inspection and fixture load analysis. Full-surface arrays replace multiple discrete sensors.
Long-term measurement of contact pressure, wheel-rail forces and load states on structural components.
Seat and foot pressure distribution, contact pressure on rehabilitation equipment — where conformity matters most.
If you can define the surface and how many points you need, we can assess feasibility.
Describe your caseWe recommend a single section with a limited point count first — decide with real data.