Massage Combs TRIZ Cases

An inflatable bladder and control module apply targeted abdominal pressure to reduce venous pooling.

A smart brush uses scalp sensors to detect tissue conditions and dynamically adjust electrode current frequency and intensity.

Proximity sensors detect device distance to scalp and hair, minimizing product waste by adjusting dispensing rates based on real-time spatial conditions.

A battery pack uses detection circuitry and n-FET switches to enable current flow only upon proper insertion into the device.

Processor-controlled CPR device modifies chest compression parameters based on patient feedback to maintain circulation while reducing tissue damage.

A mechanical CPR piston retracts to a retreat position after compression.

A venous occlusion system applies controlled pressure to collapse veins and enhance blood flow.

Random chaotic stimulation patterns prevent habituation in gastrointestinal devices, maintaining long-term treatment efficacy.

Muscle activity sensors trigger actuators to modulate compression, preventing stiffness while supporting venous return.

An elastic sleeve holds massage balls securely within a receiving cavity to enable precise pressure application during physical therapy.

A battery management system uses n-FET devices to monitor and control charging cycles while minimizing internal resistance.

A wearable belt with segmented vibration modules stimulates the diaphragm to enhance pulmonary function.

A massage comb head uses a silica gel soft support to buffer scalp pressure through elastic deformation.

Rectangular frame engages the popliteal space to induce inward knee bending via gravitational force.

A portable manual massage device uses spring-loaded tension transfer members to apply pressure and relieve muscle tension.

Magnetic drive and pneumatic atomization deliver uniform oil coverage and infrared heat to improve scalp microcirculation.

A hair styling device uses a heat bridge to transfer thermal energy from an optical radiation source heat sink to the contact surface.

An adjustable orthosis uses an elliptical outer layer and belt adjuster to fit various head sizes.

Retractable cords apply constant compression to prevent leakage while avoiding vesicoureteral reflux risks associated with vacuum suction.

A neuromuscular stimulation pad uses a pressure mechanism to displace excess tissue fluid for reliable electrode contact.

Pre-stretching electro-active polymer films using a housing mechanism stabilizes actuation and reduces activation voltage.

A belt-driven chest compression device uses laterally displaced drive spools to create a radiolucent window under the patient's heart.

A scalp stimulation panel integrates ultraviolet light emitters, friction domes, and a vibration unit for simultaneous hair growth treatment.

An integrated camera detects patient shifts during resuscitation, allowing the compression mechanism to adjust and maintain effective blood circulation.

An integrated resuscitation system uses mechanical springs to provide consistent chest compression and decompression, reducing operator fatigue and trauma risk.

Dynamic airbag contracts to clear path for massage units, resolving interference between perineal pressure and multi-region movement.

Hemispherical projections on an elongated strap target specific neck areas, resolving the trade-off between ease of operation and precise pressure application.

Remote motor placement and segmented design remove artifact-causing components from the imaging field, enabling clear diagnostic images during automated CPR.

A belt actuator tightens to compress the thorax and loosens to allow an upward force actuator to decompress the chest.

Transparent mechanical elements allow light to pass through during vibration, resolving inconsistent optical stimulation caused by opaque brush fibers.

Piezoelectric speakers generate acoustic radiation pressure to propel lymph fluid in a predetermined direction within a flexible stocking.

Variable spring constants adapt pressing forces to local skin stress, resolving inconsistent massage effectiveness caused by varying physical characteristics.

A piston-based chest compression device mounts to gurney side rails.

A wearable belt integrates a motor and piston to deliver chest compressions until heartbeat detection restores cardiac function.

A chest-mounted appliance guides movement through defined sternum and tube passageways to massage breast tissue.

Automated chest compression device alternates cardiac output and venous return cycles to enhance forward blood flow.

A manually supported elongated member integrates vibration motors and heat pads for comprehensive bodily stimulation.

Periodic bladder inflation shifts contact pressure to reduce skin irritation while maintaining a reliable airway seal.

A compression bandage uses electroactive actuators and a pressure transition system to redistribute force across body segments.

An adjustable strap secures the device around a limb while a handle moves to apply precise force, eliminating the need for manual muscle tension.

Inflatable bladder interposed between belt and paddle applies consistent abdominal pressure to promote shallow breathing.

A wireless electrode probe emits 400 to 800 nm light to relax smooth muscles via photostimulation.

An inflatable belt gathers efficacy feedback data to adjust blood flow restriction parameters, resolving inadequate training load assessment.

Soft deformable teeth in a fluid outputting massager expel stored liquid through tip holes under pressure, eliminating metal hardness and hair pinching issues.

A rectangular support frame positions the popliteal space to induce inward knee bending via gravitational force.

An inflatable belt forms an inward air cushion to reduce pressure spikes, improving comfort and safety in blood flow restriction training.

A silicone condom integrates a fused ligature to anchor the scrotum and testicles.