Saddles TRIZ Cases

See how an electric drive unit with battery, motor, and differential enables single-person move

See how a detachable frame structure with segmented sections enables easy assembly, disassembly

A synchronized rotating rack and lift linkage keeps horse saddles upright during loading, transport, and storage to prevent deformation and injury.

A split saddle tree lets the rider-facing and horse-facing parts be adjusted separately, improving fit over time while staying securely joined.

A hook-and-loop saddle pad fastening links the pad top to the saddle cushion for secure fit across different saddles without girth threading.

A guided spring and cam mechanism cushions landing loads in a riding saddle without affecting normal stirrup function.

Mechanical and magnetic coupling keeps the stirrup strap secure in use, then releases automatically under a preset fall force.

Heat-moldable thermoplastic foam creates a saddle pad that permanently fits horse and saddle contours to reduce pressure points and direct transfer.

A two-stage girth and additional strap distribute tightening load to limit forward saddle slippage and improve horse comfort.

An extensible main and chest member adapts to horse morphology, distributing support to stabilize the saddle while reducing pressure points.

This saddle pad uses panel pockets and adjustable fasteners to maintain positioning while improving cushioning and fit.

This saddle uses expanded polyurethane knee rolls with reinforcement to improve fit and comfort while supporting the rider's legs.

Variable-density padding and layered leather underflaps help a saddle adapt to rider and horse contours while controlling cost.

A reproducible saddle-position reference and inclination sensing help detect drift and restore fit as the horse’s anatomy changes over time.

Segmented saddle tree with ball joints adapts cushion plates to animal back curvature, resolving command transmission versus freedom of movement trade-off.

Segmented saddle tree design with reversible fastening device resolves structural stability versus adaptability trade-off.

Segmented composite saddle tree with side plates stabilizes the structure on the horse's back while distributing weight effectively.

A saddle girth uses rigid joint rings to pivot belt sections relative to a middle piece.

A horse bridle martingale uses a pull-latch lock to secure the girth connection under normal riding forces.

Overlapping V-shaped strap suspensions with spaced ends distribute tension evenly, preventing pressure concentration on the horse's thoracic spine.

Elongate apertures enable adjustable block positioning to resolve production complexity from multiple specialized saddle designs.

Segmented resilient plate with non-overlapping air bags resolves pressure point trade-offs in horse saddles.

Segmented saddle tree segments connected by articulated bridges adapt to dynamic back shapes without generating harmful pressure peaks.

Raised ribs on the elongate tape body increase friction to prevent rope slippage during dallying, reducing finger injury risks.

A saddle tree uses multiple fastening elements to adjust cushion position and space between legs.

A hinge on the saddle lower surface enables quick reinforcing member changes, resolving fit complexity.

A saddle blanket uses woven velour and spacer fabric to manage moisture through capillary action and air permeability.

Relocating monitoring devices from the head to the torso eliminates injury risks while improving measurement accuracy for continuous health assessment.

Flat coupling element with spring hook eliminates horseshoe catching risk while thermoplastic gel paddings reduce muscle compression.

Vertical holding elements attached to the saddle constrain rider hand position, replacing gross motor steering with sensitive rein control.

An elastic sheet pushes a buckle bar to rotate, preventing accidental sliding into undesired holes during adjustment.

Replacing leather with a hydrophobic cork cover eliminates wet slipperiness and ethical concerns while maintaining rider safety.

Segmented faux belt displays buckles without impeding rider performance.

Segmented utility envelopes and dynamic couplers maintain diaper retention while enabling quick removal for outdoor waste elimination.

An elastic composite padding element in an equestrian strap design distributes tensile forces evenly to reduce pressure on sensitive animal areas.

Segmented seat padding with elevated regions relieves coccyx pressure by shifting load to the ischial tuberosities for improved rider comfort.

A pivotable cantle saddle tree pivots upward to relieve pressure on the horse's lumbar region.

A modular western saddle uses detachable seat inserts and adjustable stirrup bars to customize fit for riders.

Segmented saddle tree uses articulation mechanisms to distribute pressure across the horse's back, eliminating discomfort from rigid static designs.

Segmented rubber mats on the horse's back increase muscle strength without disrupting natural running posture or coordination.

Parallel contact elements sewn to a base body distribute pressure and create ventilation channels, preventing sweat accumulation on the animal's back.

Independent elastic rings in a horse saddle girth distribute pressure across the body, reducing irritation while maintaining secure fastening.

A horse girth breastplate featuring a perimetric raised portion and internal ribbings distributes force across the chest region.

Segmented mirror design enables riders to swap decorative elements quickly without compromising mechanical stability.

Stitched leather and plastic sheet fabrication joined with riveted carbon fibre components eliminates moulds to achieve 60% weight reduction.

A horse saddle uses freely movable cushion members to adapt to the animal's back shape.

A saddle bag connector uses a threaded post and pin to secure bags.

An anatomical pad uses yielding materials and pressure relief sites to cushion rider stress on sensitive areas.

A ratchet limit strap anchors to a saddle tree back engaging element and adjusts the seat forming element upward travel.

A leather comfort bridge spans saddle tree points to increase structural support area, reducing pressure points and eliminating bulky stuffing maintenance.

An injection molded saddle core with a hardened reinforcement layer replaces traditional leather and wood to improve weather resistance and durability.

Silicone electrodes with graphite pins penetrate animal hair to acquire cardiac signals, eliminating gel discomfort and motion noise.