Bag Making Operations TRIZ Cases

A manufacturing apparatus attaches spouts to top gusset sections of folded package material using intermediary mechanical fixation.

Segmented perforation openings and spot connections resolve loose side fold misalignment, ensuring smooth operation of positioning devices.

Adhesive-coated handle ends bond through film bag holes with inner patches to create secure carry connections.

An outer and inner polyethylene structure resists tear and puncture forces while reducing thermoplastic material consumption.

Dual linear motor circuits transport hose sections through parallel processing units, eliminating intermittent re-alignment and boosting output.

A dummy jet control unit evaluates individual nozzle usage status to determine maintenance necessity.

A packaging bag manufacturing system welds front, back, and bottom films to create a self-standing structure with improved user convenience.

A film recognition controller reads RFID tags to set sealing parameters automatically.

A pouch container features overlapping tongue-shaped wall sections that form a dedicated gas injection port for simplified manufacturing.

Layered crumpled and flat fibers create tensile strength and soft feel while resolving airtightness uniformity issues.

Thinned side folds enable secure zipper engagement while eliminating leaks caused by thickness differences at the closure area.

A stackable bag closure uses a non-stick layer and pressure-sensitive glue to enable temporary or permanent sealing.

Extracting the side seal from the overlapping gusset region prevents distortion of the isosceles right triangle pocket while ensuring self-standing stability.

Continuous print layout reduces paper waste and simplifies cutting post-processes in flexible packaging production.

Integrated cooling in impulse sealing jaws prevents film distortion during pouch production.

Acute-angle suction jaws concentrate force to peel static-charged film bag sides, reducing cycle time.

Selective adhesive application creates air gaps in laminated paper plies, maintaining thermal insulation while ensuring curbside recyclability.

Folding compressed corners inward creates a flat base, reducing production complexity and equipment costs for standing pouches.

Differential cylinder speeds prevent waste turnover, resolving jam risks while maintaining high production rates.

Self-standing bags made of flexible elastomeric sheets reduce material costs and storage bulk while maintaining stability for dialysate concentrates.

A control unit manages bag production parameters and storage operations through automated data transmission.

Electrically controllable drive units automatically compensate for speed differences between transport belts, eliminating manual adjustment downtime.

Polyethylene reinforcements on plastic-coated paper resolve the contradiction between mechanical strength and aeration in produce packaging.

A split forming shoulder with pivotable parts guides wrapping material into a tube, preventing pinching during threading.

Controlled glue interruptions form ventilation pathways, eliminating complex needle rollers and reducing device complexity.

Pointed teeth on the rotating cutting wheel prevent smearing and cold welding at the cut face while eliminating knife wear stoppages.

Heat welded patches strengthen handles without increasing manufacturing complexity or requiring separate components.

Tension rollers stretch webs with shorter print pitches to align patterns without heat damage.

Front-side illumination through a work table slit enables accurate alignment of printed characters during film joining, reducing misalignment and product loss.

A bag making machine synchronizes ultrasonic crushing and thermal sealing via a shared cam mechanism.

A transforming machine converts sealed bag precursors into open bags using a perforation station and separation station with controlled roller rotation.