Localized laser heating melts solder section by section so connecting boards can be removed without damaging the mainboard circuit area.
A wall-separated inductor chamber with bypass tubes keeps pressure equal during vacuum soldering, preventing coil contamination and enabling faster heating.
Vision-guided solder dispensing and path planning improve micro wire weld uniformity, productivity, and joint reliability.
Localized pin thermodes bond RFID chips to fabric antennas while curing adhesive at contact points and limiting heat and pressure damage.
Local non-contact induction heating solders MIDs, PCBs, and FPCBs on 3D structures while minimizing thermal damage and cooling time.
A split Gaussian and ring-shaped laser beam enables real-time temperature control to prevent overheating and improve soldering yield.
By measuring idle and load power at the tip, this control approach improves soldering traceability, temperature stability, and fire prevention.
Orientation and arm-angle sensing correct lateral force errors in laser brazing, helping maintain consistent joint formation.
A flexible membrane pad and cover-supported upper tool apply uniform pressure to uneven electronic assemblies while reducing tool-change downtime.
Independent stacked process chambers enable time-offset reflow soldering with precise local heating and cooling in a smaller footprint.
A fusible alloy and controlled heating join metallic fabrics while preserving conductivity continuity, shielding, and fabric integrity.
A zeolite box adsorbs residual flux after separation, protecting oxygen sensors and stabilizing nitrogen control in reflow ovens.
Mixed natural gas, air, and oxygen ratios stabilize flame heating in copper-aluminum brazing to avoid overheating and uneven filler penetration.
Stored cartridge calibration and sensor feedback keep soldering tip temperature accurate, traceable, and protected from incorrect settings.
Interconnected laser and drop ducts simplify solder feed routing, support wider solder body sizes, and enable precise nozzle-based laser soldering.
Cartridge memory, power-load measurement, and network logging prevent wrong tip settings, overheating, and untraceable soldering work.
A variable gap and gas-driven reservoir motion keep solder balls from lodging between the reservoir and feed plate, improving bonding reliability.
Automated gripping and magazine preheating speed selective wave solder nozzle changes while avoiding manual handling and nozzle deformation.
A counter-flow pressure gas barrier keeps debris off the optical window in laser solder jetting, reducing cleaning and preserving heating efficiency.
Medium-frequency induction plus directional beam heating speeds vacuum brazing of X-ray anode target plates while improving temperature uniformity and bond quality.
A low-power preheat laser raises solder absorption before high-power fusion, reducing reflection losses, thermal damage, and total laser power.
Residual flux is adsorbed in a zeolite box after separation, protecting the sensor and stabilizing gas ratios in a reflow oven.
Load detection and automatic tip calibration improve soldering uniformity, prevent overheating, and extend cartridge life.
Residual flux is adsorbed in a zeolite box after separation, protecting the sensor and keeping reflow oven gas ratios stable.
A diffuse hydrogen flame removes metal surface oxides under ambient conditions, avoiding flux and acids while enabling cleaner solder joints.
Multiple heating conductors position at specific length-to-diameter ratios to ensure uniform eddy current heating despite obstacles.
A heated roller melts zinc-based coatings to braze steel workpieces without flux.
Integrated heating jaws secure work pieces to prevent relative movement and dry joints while maintaining molten solder.
Automated clamping unit secures interconnectors to solar cells before thermal bonding, reducing device complexity while boosting productivity.
Inner and outer heating eliminates temperature gradients, cutting cycle time for large metal parts.