Without Separate Inflatable Inserts TRIZ Cases

A softer rubber covering on the tyre innerliner shields the RFID antenna from cyclic deformation, helping prevent separation and signal loss.

A stiffer inner mount member paired with a softer inner liner attenuates sensor vibration inside a pneumatic tire and reduces travel noise.

A flexible innerliner-mounted sensor housing combines direct tread wear sensing with secure TPMS connection for repeatable tire-life monitoring.

An elastic securing element keeps tire structures parallel during handling and shaping, avoiding sacrificial fixings and tread non-uniformity.

Automated spraying, air drying, and forced cooling stabilize self-sealing tyre coating quality while cutting production time.

A light-emitting tire label marks the embedded communication device position clearly in dark and bright conditions while reducing label confusion.

A two-layer cover rubber isolates embedded tire electronics from carcass cords and butyl rubber to reduce separation and improve durability.

A softer rubber covering than the tire innerliner absorbs deformation stress, preventing antenna separation and preserving RFID function.

A built-in tube and base plate create a distinct slow air leak at a set tread depth, giving real-time tire wear indication without external sensors.

Placing the RFID label on a safe innerliner zone prevents tire-side detachment and cracks while preserving impermeability and simple production.

A low-modulus sidewall reinforcement reduces vertical spring stiffness while preserving run-flat durability and crack resistance.

A built-in tube sensor flags worn tread through a unique slow air leak, enabling real-time tire wear monitoring and safer replacement timing.

A rubber-film tire laminate uses tuned modulus, thickness, and peel strength to suppress splice stress concentration and cracking.

Moderate-aspect platy mineral fillers help tire inner liners cut gas permeability more consistently while limiting oxidation of elastomers.

Deep circumferential cut-outs aligned with crown stiffening elements reduce peeling loads while keeping tire contact pressure regular.

A slip-enabled securing element keeps 3D tire fabric layers aligned during handling, improving tread flattening without slowing manufacturing.

Recovered carbon black sidewalls tune rubber thickness, load capacity, and damping to balance ride comfort, load resistance, and fuel efficiency.

A tread-embedded wireless tag with a helical antenna and cord-crossing orientation reduces strain damage while maintaining tire communication.

Controlled bladder release coating thickness improves tire air retention and puncture sealing while avoiding bead contamination and rim shifting.

Offset connectors and attachment pegs let tire sensor PCBs stack interchangeably while maintaining alignment and electrical connectivity.

A light-emitting tire label marks the embedded communication device position, making it visible from outside even in dark conditions.

A compressed elastomer and rigid backing seal the rim bead area to stop air leaks and tire slippage without an inner tube.

A butyl-rich innerliner blend uses fatty acid salt-amide additives, oil, and C5 resin to improve sheet handling without sacrificing air retention.

A low-modulus sidewall region and tuned reinforcing rubber improve run-flat durability while limiting vertical stiffness and ride comfort loss.

A heat-sealed polyester RFID tire tag stays attached through vulcanization and use while preserving readable chip performance.

An adhered 2-8 mm sealant layer on the tire inner liner plugs punctures, maintains air pressure, and extends tire durability.

A segmented sealing-layer junction uses 20°-60° crown angles and steeper sidewall angles to cut rolling noise without sacrificing sealing.

A thin inner liner paired with recovered-carbon-black insulation suppresses air permeation while limiting heat buildup and shape instability.

A thermal insulation element between tyre and rim cuts heat loss to the wheel, helping maintain tyre warmth and reduce rolling resistance.

Biomass-derived fillers with acidic hydroxy groups help halobutyl inner liners cut gas permeability and crack growth without raising tire weight.

Vented tyre baffle liner structures dissipate impact shockwaves and modulate pressure spikes to improve controllability and reduce rolling resistance.

Variable inner rubber thickness damps tread vibration and cuts noise while keeping a compact tire profile and limiting added weight.

Segmented rigid inserts with elastomeric bridges let a wheel adapter absorb curb impacts while preserving a large-diameter rim appearance.

Forced cooling and automated spraying shorten HSST tire coating time while improving self-sealing layer consistency and scale-up.

Recovered carbon black and oil are balanced across tire rubber layers to improve thermal stability, dispersion, and durability.

Lower-rigidity sidewall inserts cut rolling resistance and improve ride comfort while preserving run-flat support in self-supporting tyres.

Segmented rigid inserts in circumferential cavities use elastomeric bridges to resist shock and thermal detachment in rolling assembly expanders.

A softer inner liner beneath a stiffer sensor mount absorbs tread vibration, reducing travel noise without sacrificing tire data detection.

A thicker tread inner rubber and thinner sidewall layout cuts tire vibration and noise without the weight penalty of uniform thickening.

A local insulation rubber layer isolates embedded electronics from carcass cords, reducing fatigue damage without adding full-liner weight.

Embedded stiffening elements and deep circumferential cut-outs prevent peeling, preserve contact regularity, and raise tyre rigidity.

A linear conductive portion in the carcass inner rubber keeps tire resistance low despite deformation, sustaining electrostatic discharge after travel.

A tapered dual inner liner cuts rolling resistance while preserving airtightness and bead support in run-flat tire operation.

Controlled release-agent thickness and silicon content improve tire air retention and puncture sealing without causing bead-area rim shifting.

Positioning the RFID tag within a defined angle from inner liner joints helps maintain tire uniformity and protect communication performance.

Applying an air barrier layer and dampening member after tire curing improves adhesion, cuts resonance noise, and maintains air retention.

Placing the tire's electronic component within the bead reinforcing layer but away from steel cord splices improves durability, signal reliability, and steering stability.

By moving the electronic component unit at least 5 mm from the bead core, this tire layout preserves RFID communication and adhesion under deformation.

A sprayed fatty-acid salt coating cuts sealant stickiness and crystal buildup in self-sealing tires while preserving airtight puncture sealing.

Embedding tire electronics by vulcanization near the bead filler and sealing them with matching rubber prevents detachment, air gaps, and damage.

Strategic placement of partial tie rubber layers between carcass and inner liner reduces tire weight while maintaining air permeation prevention.