Containers To Prevent Mechanical Damage TRIZ Cases

A symmetrical corrugated fibreboard insert folds into a five-sided structure to secure toner cartridges during shipping.

Inflatable hollow scaffolding component provides structural rigidity to flexible packaging systems, reducing material usage and transportation costs.

Segmented airtight bag uses independent openings to access multiple substances, resolving the trade-off between device complexity and operational convenience.

Parallel air columns and heat sealing lines provide robust protection against impact while enabling recyclable material recovery.

Merging the retention insert with the container wall eliminates separate waste streams while maintaining reliable object retention during transport.

A deformable foam wedging insert adapts its internal cavity to secure objects within a standardized container frame.

A multilayer protective profile uses a wider inner core layer folded over flange edges to reinforce the structure.

Bent hollow rods disperse stress on plate devices, preventing damage while replacing non-degradable foams to meet environmental restrictions.

Triangular packaging uses elastic tension to hold items against a carrier, preventing damage during shipping while enabling direct display.

L-shaped projections on the jig align support structures, reducing manual adjustment time and preserving structural integrity.

Segmented corner protection members slide independently to absorb acceleration forces, preventing fragile object damage during handling.

A transparent flexible liner secures household appliances using an impact-absorbing base and integrated straps.

Segmented outer and inner cages with perpendicular rotation axes maintain upright positioning while absorbing shocks in shipping containers.

A tray module pad features square elastomer flow prevention patterns that secure loading target parts during transport.

Beforehand cushioning with diagonal sheets or deflector nets reduces product damage during high-speed conveyor dispensing.

An asymmetric wedge container arranges felting needles unidirectionally to eliminate opposing pressure damage while minimizing operator injury risk.

A hollow support body with a weakening line deforms under load to stabilize packaged objects during transport.

An inflatable packaging structure uses fluid chambers and check valves to absorb shock.

Tensioning flexible sheets against a platform panel reduces material consumption while maintaining impact protection.

Disposable paperboard inserts create tapered air cells that prevent shifting and damage, replacing heavy wooden supports.

Elastic sheets cover base plate openings to immobilize irregular objects, resolving adaptability and complexity trade-offs.

Two mating case halves form a compartment for tape cartridges, using crushable flanges to absorb impact energy without compromising structural integrity.

Cellulose-based hinged holders absorb impact energy and prevent shear deformation in watch packaging.

A protective blister package uses a structural ridge to absorb impact forces and improve stability.

Integrated baseboards and baffle flaps create a rigid cushion that simplifies assembly while enhancing structural durability during shipping.

Cover tape restriction structures limit chip movement in carrier tape recesses, preventing collision damage during transportation.

Integrating corner protectors into the box template eliminates separate storage needs while providing uniform protection during transit.

An air cushioning material uses belt-like parts and coupling parts to connect multiple air cells into a unified structure.

Accordion cuts in the foam allow dynamic expansion, suspending corners to reduce direct force transfer during shipping.

A foldable container uses segmented panels and adjustable apertures to secure fragile items during transit.

Segmented flexible sheet folds to match corner geometry, reducing transport volume while maintaining protection.

A polygonal cardboard wedge system stabilizes objects within shipping boxes using flexible flaps that conform to item contours.

Segmented bottom columns fold into a protective base to absorb shock without increasing manufacturing complexity.

A loading box uses a detachable positioning member with a baffle and supporting arms to define customizable accommodating spaces.

Inward protrusions on container sides and bottom support ceramic substrates, preventing chipping and cracking while enabling reusable packaging.

A one-piece corner board locator secures angled panels between vertically aligned containers to maintain stack integrity.

A guiding rail with a recessed polymer insert reduces kinetic friction, allowing one-handed dunnage manipulation without blockages.

An inflatable web uses intermittent side seals to create non-continuous longitudinal channels for gas flow between chambers.

A suspending layer hangs between inward-bent air columns to carry external objects while providing buffering protection.

Stoppers made of EPP or EPO material abut against the display panel side surfaces within an EPS box, preventing impact displacement during transportation.

Monolithic corrugated cardboard packaging uses integrated folding members to capture articles and maintain protective air gaps.

Suspension insert eliminates packing waste by securing products with integrated retention elements and air gaps.

Foldable corrugated inserts replace polystyrene, reducing space and energy while protecting the unit.

A hinged window protection device secures corners and flat surfaces using a locking mechanism and adhesive attachment.

A packaging box with a baffle divides the cavity into sections, preventing collision damage during transit while enabling compact storage.

A three-layer plastic shipping bag uses a compressible intermediate layer to protect contents during transit.

Segmented packaging with conductive cardboard and film prevents electrostatic discharge while allowing easy module removal without mechanical damage.

A frame end cap package secures to a frame corner using integrated tabs and slots without mechanical fasteners.

Pivoting frame panels center objects automatically using gravity, eliminating preloading requirements and boosting packing speed.

Nested inner sidewall panels reinforce the outer shell, eliminating lamination complexity while maintaining structural strength.