Welding/Cutting Auxillary Devices TRIZ Cases

See how a copper nozzle with integrated extraction channels removes welding smoke and slag at t

See how a rotatable circular mount with collar corner simulators enables precise positioning an

See how offset support arms of varying heights allow clamps to nest within each other, reducing

See how tube expansion portions with concave surfaces create gaps for brazing material, increas

See how variable-speed fan control adjusts cooling based on welding parameters to reduce power

See how contactless detection of interconnected-area geometry enables distortion-corrected cutt

See how automated refrigeration, transfer, and stirring of solder containers prevent oxidation

See how offset support arms at different heights allow clamps to nest vertically, reducing wall

See how offset support arms of varying heights allow clamps to nest within each other, reducing

See how segmented surface plates enable continuous or spaced configurations, reducing the need

See how pin-based alignment plates enable cloth to remain positioned across ironing, printing,

See how a rotatable fixturing platform with extensible arms and modular mounting brackets enabl

An extruded base with full-length mounting channels lets one welding power supply platform fit multiple model lengths and component layouts.

A self-contained heat pipe uses phase change and capillary action to cool GMAW torches, extending consumable life without pumps or hoses.

A two-degree-of-freedom horn mount controls horn-anvil gap and parallel alignment to improve ultrasonic weld consistency and product quality.

Solid-state welded zirconium, titanium, and steel regions protect urea equipment from corrosion and erosion while enabling durable retrofits.

Sliding plates, through-holes, and grooves let one welding table fit varied workpiece shapes while supporting secure clamping setups.

A tab guide and fixing structure keeps electrode tabs spaced and gently bundled, preventing cutting during high-frequency ultrasonic welding.

A movable stop element automates part positioning for end and through-joint ultrasonic welding, improving alignment and weld consistency.

Negative pressure holds the battery cover flat during sealing, preventing deformation and uneven welds in secondary battery assembly.

A supported insulated cable section stabilizes stranded-conductor welding, improving sealing, alignment, and batch-to-batch production consistency.

Detachable clamping portions with a wear-resistant layer limit battery case deformation during welding while reducing clamp wear and scratches.

Separate big and small wheel shafts improve stress distribution, turning accuracy, damping, and maintenance in universal wheels.

Two welding heads join opposite end-cap zones through a clearance jig to raise battery cell welding speed while maintaining sealing quality.

Blue laser welding improves copper absorption to produce stable, low-spatter welds with consistent microstructure for battery pack conductors.

A protective jig between adjacent battery leads enables busbar-free laser welding, reducing pack weight and cost while preventing shorts.

Pre-aligning bent electrode leads with aligning and masking jigs keeps welding length uniform, improves bonding strength, and limits spark damage.

Autonomous drones collect welding data and reach remote work areas faster, reducing travel delays across large dispersed sites.

Rounded ultrasonic pre-welding and controlled end-face flatness keep multilayer electrode tabs suitable for stable laser welding.

Opposing inert-gas flow paths in an inner-outer welding jig improve shielding uniformity, reducing oxidation and spatter during laser welding.

Distinct bonding and surface microstructures in the housing weld reduce surface defects, leakage risk, and shock-related failure.

Controlled gas discharge and segmented electrostatic chuck release improve substrate contact uniformity and bonding position accuracy.

A welding mask with a laser passage and insertion guide protects the electrode assembly while enabling purging gas flow and impurity removal.

A two-portion welding region preheats the joint area to limit deformation and cracking while maintaining battery component weld quality.

A segmented receiving groove and protrusion bend the lead at a preset position, improving laser welding consistency for current collector plates.

Partitioned upper and lower mask jigs switch between clean work regions to limit spatter downtime in battery tab laser welding.

A two-zone welding area lowers heat concentration in battery components, reducing deformation and cracking while making incomplete welds easier to spot.

Shielding gas routed through a pressure plate clears weld slag from the tab-post joint, helping keep debris out of the battery cell.

Pre-heat, upset-heat, and post-heat control weld hardness and fine-grained HAZ to prevent cracking in high-strength wheel rims.

A guide hole constrains the protective sheet during battery tab welding, preventing offset and ensuring full weld-region coverage.

Sequential busbar transfer and staged welding cut solar module support points from ten to three, reducing footprint, cost, and prep delays.

Measured tab thickness adjusts horn and anvil pressure to prevent overlap deformation and welding defects in secondary battery assembly.

In-process tensile force measurement verifies electrode tab bonding quality in real time, avoiding slow destructive inspection.

Reaction force feedback adjusts bead cutter travel on rotating hydrogen tank liners, reducing cutting deviation and sealing defects.

A split sub-frame and U-shaped main frame improve battery module cooling while preventing frame cracking and weld spatter.

An insertion-guided welding mask enables laser welding inside a battery cell while shielding the electrode assembly and clearing oxygen and spatter.

Continuous inert-gas coverage during and after laser welding prevents coil-joint oxidation while keeping rapid successive welds possible.

An inspection member checks horn and anvil level before ultrasonic tab welding to prevent uneven energy transfer and bonding defects.

A formed chamfer creates a V-shaped weld gap that improves penetration in thicker steel parts without burning through thinner sections.

Visual pin guidance and robotic heat positioning automate wire-to-connector soldering, cutting errors, labor, and rework on complex multi-pin connectors.

An inclined reflective jig redirects laser light to the battery weld zone, protecting the electrode assembly while simplifying welding.

An inclined reflective surface redirects laser light onto battery housing welds, protecting the electrode assembly while simplifying welding.

Partitioned guide holes and bent preform solder prevent separation during transfer, reducing soldering defects in semiconductor assembly.

A thermally conductive coating cools welding spatters so they slide off the shield, improving weld quality and extending protective apparatus life.

Multiple pressing needles arranged in rows maintain grid line contact despite mounting deviation, reducing conduction failure in laser metallization.

Thickness measurement adjusts horn and anvil pressure during battery tab welding to prevent overlap deformation and weld defects.

A brazed intermediate layer replaces organic bonders to improve thermal durability and keep substrate support temperature more uniform.

A transfer jig moves and supports stator hairpins through cutting and welding to cut waiting time, improve alignment, and reduce defects.

A non-machined bevel and V-shaped joint gap improve weld penetration into thicker steel parts while preventing burn-through in thinner ones.

A spatter block jig between the cut zone and battery case body contains and discharges molten fragments to prevent contamination and defects.

A circular transfer jig stabilizes stator hairpins through cutting and welding, reducing inter-process waiting time, defects, and downtime.

Inserted steel core blocks with slip surfaces and magnets restrain cross-member deformation during laser welding, reducing gaps and improving bond quality.

Pre-weld level measurement and angle adjustment keep the horn and anvil parallel, preventing uneven energy transfer in battery tab welding.

Measured tab thickness adjusts horn pressure before ultrasonic welding, reducing deformation and defects in secondary battery tab-lead joints.

Tracked tool and operator motion is converted into welding instructions, reducing manual setup time and guiding less experienced welders.

Appearance inspection data guides a welding robot to repair weld bead defects automatically with accurate positioning and less manual programming.

Laser structuring segments heat-insulating glass coatings to restore electromagnetic transmission while preserving precise, high-quality panel processing.

Fixed-angle optical components keep the CNC laser beam aligned during shipping, assembly, and use, improving precision and safety.

Shield plates block laser exposure on a dross conveyor, limiting thermal deformation and keeping plate movement smooth and reliable.

Angled coupled slides adjust guide elements in compact space, supporting precise alignment of tubular workpieces across varying diameters.

Interference-based measurement light tracks object position during processing, enabling precise alignment control without complicating the processing optics.

Synchronized workpiece orientation and laser scanning keep incidence angle stable on curved surfaces, improving finish while cutting complexity.

Adjustable centering pins and a cone clamping sleeve align curved pipe elbows for uniform, high-accuracy bevel prep without machine-shop setup.

A pivoting hook with stop wings secures accessories in a table opening without manual orientation, speeding welding table clamping.

Back-surface temperature and thermal imaging guide real-time laser and pressing adjustments to keep stitch weld penetration stable.

Appearance inspection data guides weld bead-aligned repair welding, improving defect correction despite positioning errors and interference.

Flexible contact elements adapt to part tolerances for flat positioning, even force, and cleaner laser weld areas.

A spring-mounted tool insert adapts to contact tolerances in laser welding, limiting component damage, contamination, and stray beam reflection.

Periodic standby, assist gas, coolant flow, and reflective plating keep laser nozzles cooler for stable continuous machining.

A multifaced toothblock pin engages a toothed slot to give finer, repeatable workpiece positioning across more block assembly setups.

Built-in camber and segmented alloy steel sections balance heavy railcar loads across multiple axles while reducing tare weight.

Continuous battery rotation and galvanometer-guided laser welding cut positioning delays and raise end-cover welding throughput.

Lorentz-force ultrasonic pulsing relieves weld and HAZ residual stress without contact transducers, cutting heat, noise, and energy use.

A hanging unit and rotary drive let the welding gun circle large pipes without linkage shaking, improving weld alignment and saving space.

Simultaneous induction heating, pressing, and cooling improve thermoplastic weld uniformity while limiting deformation and deconsolidation.

Infrared sensors around the laser beam box detect mirror housing overheating and stop irradiation before melting or sensor faults cause hazards.

Adjustable guide diameters and a spring-loaded ring align different branch pipe sizes concentrically for uniform pipeline weld seams.

A retractable support bridges spaced conveyor sections to prevent substrate tilting during transfer into and out of vacuum reflow zones.

A cam-guided two-stage mechanism moves the welding torch close to the spindle for access, then retracts it to limit contamination.

Precise laser focal spacing and pulse control create short subcritical cracks in crystal solids, reducing damage and rework during separation.

Automated speed, distance, and direction control lets a motorized welding cart reposition precisely with less manual effort and higher efficiency.

Real-time imaging of the welding jig opening detects foreign buildup before welding, helping prevent beam obstruction and weld defects.

Multiple pressing blocks and displacement detection keep worn welding clamps tightly fitted, reducing laser leakage risk near battery cells.

Pre-separation detection maps sheet condition to each product region, enabling real-time process control to prevent scrap and rework.

Beam splitters divide the laser process beam into visible wavelength bands so separate photosensors can catch error signals hidden in broadband sensing.

Periodic laser standby limits nozzle heating and thermal expansion, helping maintain nozzle-workpiece distance and machining accuracy.

Optical sensing checks between worktable supports for slag and lodged parts before lifting, preventing crashes and processing errors.

Layer-by-layer laser machining is corrected by surface scanning and path recalculation to improve cavity depth and planarity accuracy.

Sliding guides and pressure-fluid fixing let interchangeable carriers lock quickly and accurately in exhaust component welding workstations.

A pivoting jaw and actuator-driven support arm widen beam loading and hold steel beams steady for safer welding and controlled rotation.

By interfering the laser with the nozzle inner surface and cooling the nozzle, this case reduces cut roughness without sacrificing cutting speed.

Human welding instructions are converted into robot-readable steps, cutting manual programming effort while preserving welding accuracy.

Removable supporting plates on a shared base let damaged sections be replaced without full support-member replacement, cutting cost and rattling.

Coupling elements with movable guide and fastening parts simplify long rail parallelism adjustment in width-adjustable soldering transport tracks.

Lateral transformer placement and inclined upsetting cylinders open clamp access for faster flash welder maintenance with less disassembly.

Ultra-short pulse laser processing combines in-situ measurement and feedback control to improve precision while limiting thermal distortion.

A rotary beam-deflecting laser module roughens workpiece surfaces in one pass while cutting cycle time, wear, and loading downtime.

Camera alignment and bright-region imaging help distinguish sheet metal from support projections for more accurate machining area recognition.

Retractable support pins and suction keep SiC ingot corners off the holding surface, preventing damage and preserving laser focus accuracy.

Blue or green laser welding over ridged aluminum fixtures joins foils along complex paths while extracting heat and avoiding fixture weld damage.

OCT and residual thickness sensing enable closed-loop laser scoring that holds groove depth consistently while reducing quality control cost.

Bottom-side temperature sensing and deep-learning correlation predict weld penetration and strength without destructive inspection.

A pivoting clamp and sliding fence let a plasma torch hold angle, height, and cut depth for precise bevel edge cutting.

Adjustable members on a pipeline clamp enable faster, more precise pipe end alignment before welding, improving fit-up and weld integrity.

Periodic clamp release during plate cutting relieves heat-induced curling, preventing incomplete cuts and preserving dimensional accuracy.

Compressive-force transfer with bearing supports moves assemblies quickly between staging and chamber zones while reducing friction and thermal exposure.

A removable guard near the torch switch prevents accidental welding starts while letting one holder fit both guarded and conventional setups.

Through-openings in a suction machining table let the laser pass through, reducing table damage and enabling faster, higher-energy cutting.

Horizontal links replace complex lifting drives to change workpiece supports with synchronized motion, lower cost, and self-locking safety.

Switchable forks lift stacked upper workpieces so the bottom piece can move to laser processing with less friction and no extra positioning.

Segmented insulated electrodes around the laser cutting head detect contact location by electrical resistance, helping avoid nozzle damage and stoppages.

An insulated clamshell container limits stack-effect heat loss in butt-welding heating plates while protecting electrical parts and cutting energy use.

A roller-guided protective film shields the collecting lens from debris, reducing cleaning downtime while maintaining laser processing quality.

Automated laser swab cutting uses vision alignment, sealed sleeves, and vacuum debris removal to boost throughput and reduce contamination.

Movable mandrel members expand and release the pull ring for accurate wire positioning, faster laser welding, and fewer assembly defects.

Reservoir coolant temperature is used to infer low coolant level and trigger alerts or shutdown before torch overheating and damage occur.

Automated wire guides, grippers, and vision control place pull wires into pull ring slots for faster laser welding with fewer defects.

Dual dimming screens with adjustable angles, lighting, and flexible mounting improve weld visibility and operator comfort in changing work setups.

A cooled data tag on the laser nozzle stays readable during torch operation, enabling automatic consumable recognition and real-time condition feedback.

A reconfigurable stand and sensor holder keep welding tool tracking accurate while staying lightweight, portable, and adaptable to varied setups.

A rotating mirror and positioning assembly keep workpieces fixed for accurate end-to-end laser welding without unstable linkage-driven gun movement.

An arcuate roller-guided carrier holds and flips heavy weldable segments for precise gusset welding while minimizing distortion and transport issues.

Elevated shelves and magnetic hold-downs keep laser-cut material flat and aligned, reducing warping, flashback, and underside deposition.

Multiple laser stations with coordinated robots cut large vehicle structural components in parallel to shorten cycle time and save floor space.

Two opposing refill friction stir spot welding heads increase penetration and heat distribution for thicker and multi-stack joints.

Coolant routed down and back up inside the friction stir tool directly cools the pin and shoulder, extending tool life and weld quality.

A workpiece switch and longitudinal conveyor automate tube and rod unloading, increasing storage capacity while reducing manual handling, noise, and damage.

A rotatable jig with fixed welding and machining stations improves support frame consistency while reducing manual handling and rework.

Two polarized laser spots scan cutting lines at once, raising substrate dicing throughput while keeping optical adjustment compact and precise.

Real-time phase control adapts laser intensity, polarization, and beam shape to workpiece position and motion for precise machining.

Coil inductance reveals stud insertion depth, letting the controller verify welding gun alignment before welding without extra sensors.

Laser joining and shaping of flat materials cuts scrap by reusing residual pieces, enabling customized composite profiles with lower energy use.

A threaded dial and shaft let weld fixtures quickly reset tool height after tool changes or welder maintenance, improving weld consistency.

Pneumatic tubes expand barriers against movable panels to create a light-tight laser welding enclosure without complex motorized sealing.

A laser cuts the inner film layers while a blade trims the release film, preventing shoulders and taper that cause LCD alignment errors.

An angled purge nozzle and radially rotating laser head clear debris from the beam path for more complete in-situ pipeline ablation.

Adjustable guide diameters and a spring-loaded ring keep branch pipes concentric and vertical during welding, improving weld seam uniformity.

Simultaneous polygon soldering with real-time thermal compensation keeps camera and LiDAR parts parallel and improves bond reliability.

Sensor feedback and controller-based beam alignment make handheld laser welding safer and easier while maintaining weld quality for new users.

Modular slat mounts and guided slats simplify replacement, cut laser cutter downtime, and help manage slag and debris buildup.

Single-phase inverter power and stepper motor gun control maintain drawn arc weld quality at distances up to 150 feet.

Cross-jet gas at the irradiation port blocks metal vapor and spatter, protecting laser optics during vacuum welding.

Discrete spring-biased pawls and a sleeve retractor improve laser nozzle holding force, alignment, and changeover speed.

Synchronized scanning and pulse power control forms subsurface lens structures faster and more precisely across many focal positions.

A flexible laser-resistant mat and integrated fume filtration let this laser cutter fold for transport while cutting larger surfaces safely.

Image-based intensity drop analysis separates real incomplete cuts from pseudo-defects during laser machining for more reliable disruption detection.

Pulsed laser structuring creates substrate grooves that improve metal-polymer bonding strength while avoiding dual light sources and interfacial rupture.

Real-time correction of C-shaped frame position offsets table bending in friction stir welding to keep joint depth consistent and reliable.

Pivoting legs, wheel assemblies, and an adjustable torch improve mobility and stability for safer, more precise metal cutting.

A non-metallic coating on the metal grate prevents molten cut material from sticking, keeping support surfaces even and cuts accurate.

A polygonal torch path with fixed end points improves one-pass fillet weld bead appearance while maintaining root penetration and reducing defects.

A segmented enclosure around the laser torch head uses interlock switches and light shields to improve safety without pallet shuttle loading.

A marked body member and inclined head wall enable accurate inner-surface welding that avoids crevices, cuts corrosion risk, and simplifies tank fabrication.

A laterally parked middle support with folding elements prevents heat shielding in soldering transport while still supporting sag-prone material.

Heating the plate interface below melting and then applying yield-level stress creates strong spot welds without melt-solidified structures or large heat-affected zones.

Bearing assemblies and energizers let a displaced electrode return to its home position with simpler damping and easier tool operation.

Light transmission imaging quantifies unprocessed wafer regions after laser piercing, reducing operator-dependent inspection and readjustment errors.

Sealed pads, clamps, and gas flow cut leakage during annular through-hole laser drilling, reducing strain, distortion, and cracking.

Gap-sensor alignment and staged GT/GM robotic welding cut pipe spool welding time, manpower, and defects on circular grooves.

Separate cutting and welding carriages shorten metal strip joining cycles, reduce accumulation needs, and avoid complex alignment hardware.

A movable dividing wall lets laser machine workspaces resize for different parts while preserving safe parallel processing and loading.

Interstices placed only where machining paths intersect support loci reduce fixture interference, collateral machining, and unnecessary clearances.

Multiple angled gas supply holes even out assist-gas pressure in a laser head, reducing flow disturbance and dross directionality.

Interconnected alignment members hold workpieces across multiple axes while leaving the joint area open for faster, more stable welding alignment.

In-chamber cameras and an interlocked light-attenuating barrier enable laser cutter height measurement without unsafe radiation exposure.

A low-voltage service tool powers welding equipment in test mode to diagnose faulty circuits safely without full high-voltage startup.

Interference-based measurement light tracks object position during processing, enabling real-time alignment control without slowing throughput.

Arc-voltage feedback detects pierce completion, while dynamic corner looping and drawing repair improve plasma cut quality and material use.