Information Cards TRIZ Cases

A personalizable security document uses a laser-engravable portion exhibiting a color-change effect to selectively mask underlying patterns.

Film stack with silver structural layer creates three-dimensional optical impression, eliminating thermal damage to film layers and reducing production rejects.

Scattered luminescent fibers create a complex color gradient that resists counterfeiting while maintaining simple manufacturing.

Multi-height embossed relief structures in layered lacquers generate binary color changes, reducing production complexity and layer thickness.

Segmented optical codes readable at distinct viewing angles resolve the contradiction between anti-counterfeiting reliability and device complexity.

Segmented security signs on opposite banknote faces align to produce a third mark, countering advanced counterfeiting while keeping detection simple.

A colored thin-film element provides angle-dependent color shifts in transparent windows of plastic value documents.

Radiation-sensitive positioning marks align printed frames with a lenticular network, preventing Moiré interference and ensuring data page authenticity.

Segmenting core formation from coating resolves industrial scale reliability issues while maintaining precise manufacturing control.

A flexible tab connects to a data page using an embedded electrical conductor for direct heat input.

Laser ablation creates contoured surface images on identification documents to provide tactile and angular visual security features.

A forge-proof document uses laser perforations and mirrored reflective patterns to display aligned image information on front and back sides.

A hybrid fiber tab joins data pages by melting the outer sheath during lamination, securing the bond while the inner core maintains flexibility.

Nematic liquid crystal micromots shift light phases to reveal hidden moiré images only through a polarizer, blocking static printing replication.

A multi-layer element uses laser radiation to remove an opaque layer and trigger color effects in a sensitive substance.

Lamination presses a structural layer into the core to deform the design layer, resolving complexity issues in three-dimensional pattern production.

A two-layer color mirror combines a reflective metal layer and an ultra-thin silicon absorber to produce visually variable colored appearances.

A security print medium for polymer substrates incorporates a multi-tonal image visible in reflection and transmission.

Thermal joining bonds the hinge section to the fastening area, resolving sewing difficulties with thick biometric chips while preventing forgery.

Intaglio printed embossed patterns hold ink durably, preventing smudging and forgery on official documents.

Multi-layer data carriers resolve laser marking challenges by separating the optically variable security layer from the laser-markable layer. This segmentation prevents radiation absorption that alters optical properties while providing a consistent contrasting background for enhanced visibility.

Melting thermoplastic coating on textile tabs seals cut edges, preventing curling and forgery in security documents.

Matching refractive indices of carrier and embedding layers minimize transmitted light refraction, causing the motif to disappear when viewed through.

Microlens arrays focus laser radiation to create recesses and micro-characteristics, resolving forgery risks while maintaining visual appeal.

Offset ultrasonic joining zone prevents burr formation on security document tabs while narrower sonotrode pressure reduces process time by 80%.

A light-transparent window in a document page enables reading of security features on an adjacent page.

Localized polymer coating preserves tactile relief height, preventing wear without reducing haptic detectability.

Segmented matte coatings on hybrid banknote foils protect inner security elements from abrasion while maintaining optical clarity for verification.

Continuous deflection mirror scanning generates pixel pulse trains during motion, eliminating stop-start inertia to reduce processing time.

Relief elements on laminating plates force softened polycarbonate into opaque layer pores, eliminating defects caused by intermediate antenna layers.

A semi-transparent magnetic pigment combines metallic and dielectric materials to produce dynamic optical effects.

Perforations spanning opaque and transparent layers create visible misalignment upon window replacement, preventing fraudulent adaptation.

A metallized security label combines embossed diffraction gratings with laser-ablated individual motifs to generate a distinct optical tilt effect.

Segmenting the optical component from the substrate resolves versatility constraints while concealing elements against counterfeiting.

A security element uses an embossed structure shifted relative to parallel lines to create multicolored hidden pictures.

Matching polymer layer opacity to luminescent halftone boundaries eliminates visual contrast under white light while preserving UV detection.

A structured metallic layer enables personalization data to carry variable optical effects through laser ablation.

A multidimensional code integrates with a random pigment structure to create unique visual signatures for object identification.

Flat plateaus between embossed elements protect fragile peaks from wear, maintaining the optically variable effect during printing.

Inverted text and angle-dependent pigments resolve poor visibility of security features on light backgrounds.

Segmented polymer threads allow secure foil printing on flexible book tabs without obscuring underlying security features.

A dielectric reflection-enhancing layer replaces conductive metal in optically variable magnetic stripes to maintain visual security while preventing electrical discharge.

Variable slope facets in a diffractive structure transition achromatic and iridescent animations, resolving manufacturing precision constraints.

Segmented pattern elements arrange differently oriented facets to generate a 3D motif, lowering production complexity while maintaining forgery resistance.

Ultra-fast laser ablation creates precise watermark relief structures in uncoated paper substrates without altering surface properties.

A compact device merges identification, production, and fastening modules to attach security labels.

Segmenting the optical relief into non-radiation and radiation curable resin layers resolves adhesion failure caused by volume contraction during curing.

A transparent refractive structure printed on a security document window becomes visible against dark backgrounds.