Force Measurement TRIZ Cases

A micromechanical component integrates measurement and reference capacitors within a shared membrane structure to detect external pressure variations.

A universal load transducer uses multiple beam portions and strategically placed load cells to measure force components.

Silicone buffers absorb deformation to enable large strain measurements in soft materials.

A strain gauge laminate uses a first layer to block oxygen diffusion from the resin substrate.

A constant force spring offsets heavy test head weight, eliminating damping issues and reducing inertia for easier maneuverability.

Intensity modulation separates probe light changes from noise, extending measurement range while maintaining high spatial resolution.

A tubular load transducer uses segmented movable portions and regulation protrusions to distribute mechanical strain across a block body.

A capacitive sensor uses a shield electrode and variable AC voltage to differentiate proximity from pressing.

Decompose forming stress into in-plane and bending components to calculate springback configurations, resolving nonlinear analysis complexity.

A pressure sensing unit uses a central sensor and smaller non-central sensors to reduce channel count.

A universal sensor core integrates Wheatstone bridge and current divider circuits within display driving electronics to detect mechanical stress.

A method determines door mass by measuring mechanical power converted from electrical input.

A convolutional neural network image compression system trains filtering units to predict and update images automatically.

Offset compensation circuit dynamically adjusts the sensor signal zero point to prevent saturation and improve measurement precision in CMOS stress sensors.

Segmented load channels and temperature feedback correct crosstalk errors for accurate force assessment.

A graphene-based capacitive sensor detects finger position using layered conductive structures.

A force measurement system uses a trained neural network to predict balance parameters from subject forces.

A planar torque sensor uses capacitance changes to detect elastic deformation in a single-plane structure.

Tangled conductive fibers stacked perpendicularly in a flocculent layer enable high sensitivity while minimizing noise from parallel stretching.

A fibre optic cable structure uses periodic coupling between the core and strength member to isolate the optical fibre from deployment tension.

A road surface friction coefficient estimating device detects lateral force and slip angle to calculate tire-road interaction without wheel slippage.

Segmented conductive strips in a flexible substrate resolve the trade-off between adaptability and measurement precision for robotic prosthetics.

IoT sensors measure PCB stress during in-circuit testing to detect defects early and reduce reliance on costly post-production strain gauge analysis.

A MEMS nanoindenter transducer uses a micromachined comb drive to actuate and sense displacement.

A capacitive strain sensor device measures deformation on aircraft landing gear struts using integral plates and flexures.

A magnetic elastic body modulates its peripheral field distribution under mechanical stress to calculate bearing values and positions.

Segmented elastic beams eliminate systematic errors from cross-interference while enabling large torque measurement up to 50 N·m.

A double-membrane capacitive pressure sensor uses thin and thick membranes to measure low and high pressures respectively.

Integrating the wire with the signal generator eliminates complex substrates, reducing manufacturing costs and structural complexity.

A magnetic measurement device uses coupled sliders to determine wall thickness in non-ferromagnetic hollow bodies.

Recessed support isolates tensile stress on resistor membranes, eliminating compressive interference for higher sensitivity.

A sensor-enabled geogrid embeds inertial measurement units to detect subgrade deformation through gravitational shifts.

A pressure sensing method calculates relative resistance changes to detect pressing force values accurately.

A biodegradable mold blends corn starch with polypropylene to form a cylindrical container for concrete specimens.

A mount assembly with a resilient silicone member and rigid core simulates anatomical structures during apparel compression testing.

Resilient links in a preloaded parallelogram structure filter bending loads, enabling accurate axial force detection without additional sensors.

Segmenting the sensor from the processing casing resolves the trade-off between measurement precision and maintenance complexity in structural components.

Pure capacitor impedances linearize capacitance changes, eliminating application-specific correction circuits and reducing manufacturing complexity.

A multilayered magnetic tunnel junction pillar uses a non-magnetic metallic spacer to separate free layers.

A magnetic parallel dipole line trap levitates a diamagnetic rod to measure interacting forces via displacement.

A support force measurement apparatus uses electromagnetic interfaces to transmit signals from a deformation body sensor.

An area sensor outputs force signals from spatial platform zones, allowing a processor to determine load weight and position despite uneven placement.

Liquid metal patterns in a flexible substrate maintain wiring stability during bending, resolving the contradiction between flexibility and reliability.

A guide jacket force sensor measures tension and compression in continuous media using an instrumented flexure body.

Force sensing elements quantify digital forces during bead movement, resolving the trade-off between test administration time and measurement precision.

Dual fiber Bragg gratings measure strain while elastomeric packaging compensates for temperature effects.

An asymmetric side-hole optical waveguide detects pressure distribution via birefringence changes induced by external fluid forces.

Cam drive mechanisms replace electrohydraulic actuators to synchronize multi-axis specimen testing while reducing measurement resolution costs.

A pressure sensing assembly uses segmented rigid blocks and strain amplifying regions to detect multi-dimensional forces through distinct output signals.