Fibre Mechanical Structures TRIZ Cases

A cable clamp anchors fiber optic lines using a spool receiver and ratchet tensioner to secure the wire.

Asymmetrical friction tape prevents corkscrewing by bonding outer jacket to aramid yarn.

Segmented frames and interchangeable covers adapt fiber optic enclosures to diverse optical fiber configurations without redesigning the entire system.

A modular cable clamp cascade uses form-fitting contours to support multiple units in a step-like arrangement.

A fiber optic ribbon cable uses a flexible jacket to decouple bend preference from the stack.

A multi-core optical fiber design optimizes the mode field diameter ratio to suppress inter-core crosstalk while maintaining low leakage loss.

Nested deformable buffer tubes reduce void spaces to achieve high fiber density, enabling installation through smaller existing ducts.

A network termination device features an external identifier on the base unit visible through a translucent cover.

Curved fiber routing guide maintains minimum bend radius for drop cables in multi-dwelling unit enclosures.

Casting resin into interlaced grooves secures the insulation layer against sway, improving structural stability under high submarine pressure.

A tight-buffered optical cable with a transitional area where the sheath material mixes with tension-resistant elements.

Curved surface recesses reduce stress concentration and cracking in polymeric optical fiber ribbons.

Partitioned tray sections guide optical fibers along dedicated paths, eliminating figure-eight coiling and reducing attenuation in compact cabinets.

Stop and counter-stop mechanisms guide fiber optic cables along controlled paths to maintain minimum bending radii during rotational drawer movement.

Segmented LSZH cable structure with angularly positioned strength members resolves tensile strength versus preferential bending trade-offs.

A dielectric aerial drop cable uses equidistant embedded strength members to achieve a predefined break load between 1300 and 2100 N.

Square optical fibre ribbon stack with slits reduces cable diameter while enabling direct base access.

A fiber distribution hub uses modular pass-through interfaces to route optical signals between splitter regions and storage modules.

A tapered guiding wall aligns bare optical fibers into protective tubes for secure fixation within cable sheaths.

Spring-loaded clips with claw-like clamping sections enable tool-free installation of plastic tubes, eliminating manual threading and screw clamp requirements.

A fiber panel uses a pivoting storage portion to enclose slack cable length within the main body.

Rearranging adapters into side-wall mounts with bottom recesses minimizes termination box thickness for flush power socket installation.

An oblong fiber optic splice tray employs nested spool structures with bend radius limiters to double splice density while preventing fiber damage.

Optical fiber cable design uses stacked ribbons with edge fibers having a MAC number of at most 7.2 to minimize micro bending losses.

Dual-material jacket layers resist abrasion and torsion while micromodules isolate fibers from vibration.

A retaining element with a flexible connection base allows walls to pivot and approach each other upon cable tie tightening.

Grounding cover and base pierce the outer sheath to connect the corrugated shield and strength member to an external ground.

Segmented panel holders enable removable module installation, resolving the trade-off between low initial installation costs and flexible network upgrades.

A sliding groove on an optical distribution frame mates with a convex mounting ear to guide the unit into a cabinet.

A composite microcable merges insulated conductive wires with optical fibers inside a single sheath to transmit electrical power and high-speed data signals simultaneously.

Removable panel clips with receptacles support fiber optic modules and panels in a stackable shelf system.

A flexible fiber node connector adapts to varying installation angles without twisting optical fibers.

Segmenting the storage element from the housing body resolves the contradiction between secure cable retention and safe, practical installation access.

Segmenting the frame into universal modules increases port density while containing cable routing complexity within each unit.

Segmented jacket notches enable easier stripping of flat drop cables while maintaining mechanical strength.

Scored jacket allows manual tearing to access fibers, preventing damage from cutting tools.

A fibre optic cable uses a force transformer to convert transverse thermal expansion into longitudinal forces.

A rack routing guide channels optical fibers through a lateral opening into a protected volume.

Pre-terminated connectors on bundled drop cables eliminate invasive splicing, reducing installation costs and fiber damage risks.

Microstructured optical fibers guide light through non-periodic cladding holes to maintain single-mode transmission.

Aligns identification markings on separated optical fiber wires by adjusting running lengths, preventing information loss during separation.

A single optical sensor detects light power from ribbon fiber cables using a gradient attenuation member to identify individual fiber positions.

Sliding trays with guide tracks secure mini duplex modules, resolving the trade-off between high connector density and operational access.

Longitudinal wrapping tape on twisted optical fiber units prevents core exposure without inducing tension that increases transmission loss.

Segmented blocks with extracted gel prevent fiber ejection and maintain attenuation stability under extreme temperatures.

A rollable ribbon fiber-optic cable applies water-swellable material directly to the buffer coating.

Distinct colored indicator fibers extend past opacifying layers in optical fiber ribbons, resolving identification errors during splicing.

A pivoting retaining tray separates cable storage and splicing zones, enabling clear access to the fiber receiving area while protecting fibers from damage.

Modular fiber optic cable apparatus uses transformable brackets and retention clips to organize high-density connections.

A pressurized sealant assembly adapts to varying cable diameters using a single actuator mechanism.