SMT, THT, BGA and Mixed PCB Assembly

PCB Soldering Equipment Product Catalog

I. Reflow Oven Series | Precision Soldering Solutions for SMT Surface‑Mount Technology

Reflow soldering is the core automated process for SMT surface‑mount assembly. In compliance with international electronics assembly standards IPC‑A‑610 and J‑STD‑001, it uses controlled multi‑stage temperature profiles to complete solder paste activation, preheating, thermal soak, reflow melting and controlled cooling. It forms reliable metallurgical joints between SMD components and PCB pads, and resolves process consistency issues for micro‑components and multi‑pin packaged chips. It is standard production equipment for consumer electronics, industrial controls and semiconductor packaging.

This product line covers four mainstream reflow technologies: hot‑air, infrared, vapor‑phase and vacuum. All units adopt industrial PID closed‑loop temperature control, independent modular heating zones and closed‑loop hot‑air circulation. They support lead‑free, low‑temperature and high‑temperature solder paste processes, compatible with single‑sided, double‑sided and multi‑layer precision SMT PCBs. The range fulfills production needs from prototype sampling to high‑volume automated manufacturing.

We can select proper equipment models and fine‑tune process parameters based on component specifications, PCB layer stack‑up, production output and workshop conditions. For professional process evaluation, model selection and quotation, please contact our online support. Our engineers will provide one‑on‑one customized soldering solutions.

1.1 Hot‑Air Reflow Oven

Process Principle: Forced‑convection hot‑air circulation heating. Symmetrical upper and lower air ducts deliver uniform hot air. PCBs are heated evenly via air thermal transfer following standard SMT reflow temperature curves. It is the most widely adopted and stable reflow solution in global electronics manufacturing.

Core Advantages

1. Multiple independently controlled heating zones deliver high temperature uniformity across PCB surfaces, avoiding local overheating and cold‑joint defects caused by cold spots.
2. Full‑volume hot‑air circulation ensures sufficient thermal uniformity for fully wetted solder joints.
3. Proven mechanical design brings low failure rates and reduces long‑term operation & maintenance costs.
4. Broad compatibility with all common SMD components, fully compliant with lead‑free mass‑production requirements.

Application Scenarios: Consumer electronics, home‑appliance control boards, general industrial control boards and communication modules. Suitable for 0402 / 0201 chip resistors & capacitors, SOIC, SOP, conventional BGA and other general‑purpose components. Supports low‑volume to high‑volume manufacturing.

Contact us for customized heating‑zone configuration, equipment dimensions, technical data and project quotation.

1.2 Infrared Reflow Equipment

Process Principle: Infrared radiative penetrating heating, different from conventional hot‑air convection. Infrared radiation penetrates PCB surfaces, heating pads and solder paste simultaneously from inside to outside. It offers fast thermal response and low heat loss, and prevents component shifting induced by high‑speed hot airflow.

Core Advantages

1. Gentle radiative heating generates low thermal shock, protecting thin‑substrate and temperature‑sensitive precision components.
2. Fast temperature ramp‑up and responsive temperature control improve throughput compared with hot‑air reflow.
3. No high‑velocity airflow; eliminates offset, tombstoning and displacement of tiny components.
4. Ready for integration into fully‑automatic SMT production lines.

Application Scenarios: Thin PCBs, ultra‑thin modules and miniature precision assemblies. Widely used for smart‑home hardware, compact digital products, wearables and lightweight communication circuit boards where component protection is critical.

Please contact us for process adaptation solutions and detailed quotations for thin‑PCB and micro‑component soldering.

1.3 Vapor‑Phase Reflow Equipment

Process Principle: Vapor‑phase reflow works on latent‑heat exchange from fluorinated inert‑medium vapor. Saturated vapor condenses inside an oxygen‑tight enclosed chamber to achieve isothermal soldering. Zero temperature gradient across the working area makes it a mainstream high‑end precision soldering technology worldwide.

Core Advantages

1. True full‑area isothermal heating solves uneven‑heating challenges for BGA, underfilled chips and special‑form devices.
2. Oxygen‑free inert atmosphere prevents pad oxidation, component burnout and discolored solder joints.
3. No airflow‑related component displacement.
4. Superior solder‑joint wetting performance; void rate is substantially lower than conventional reflow processes for improved joint reliability.

Application Scenarios: High‑reliability premium electronics: automotive main‑control units, aerospace parts, high‑end medical devices, 5G high‑frequency communication modules and precision RF circuit boards.

Share your production requirements to receive customized model selection and quotation for high‑precision, high‑reliability PCB soldering.

1.4 Vacuum Reflow Equipment

Process Principle: Combines accurate reflow temperature profiling with vacuum negative‑pressure degassing. Volatiles from flux and trapped air are extracted while solder melts. With inert‑gas protection, it forms high‑density solder joints to meet strict semiconductor assembly specifications.

Core Advantages

1. Greatly reduces solder‑joint void ratio; void percentage for high‑power pads and BGA joints can be controlled within 5%, meeting top‑tier industry standards.
2. Denser solder joints offer excellent electrical and thermal conductivity, satisfying heat‑dissipation demands of high‑power devices.
3. Vacuum degassing removes flux‑caused porosity and prevents post‑assembly oxidation and delamination failures.
4. Supports high‑temperature lead‑free and special high‑reliability packaging processes.

Application Scenarios: Semiconductor packaging and high‑end power electronics: IGBT power modules, automotive power PCBs, advanced chip packaging substrates, new‑energy ECU boards and precision power devices requiring low‑void soldering.

Get in touch for customized vacuum reflow production solutions for high‑end packaging and low‑void soldering needs.

II. Wave Soldering Series | Automated Soldering Solutions for THT Through‑Hole Components

Wave soldering is the core automated equipment for THT through‑hole assembly. Compliant with IPC‑A‑610 and J‑STD‑003 international through‑hole soldering standards, it generates stable molten solder waves. PCBs transported across the wave achieve full wetting and hole filling for through‑hole pads and component pins. It replaces manual soldering and resolves common pain points: inconsistent quality, high defect rates and low throughput for through‑hole assemblies.

This series includes single‑wave, dual‑wave and selective wave soldering machines. It covers prototype sampling, standard mass‑production and mixed‑technology precision soldering. It supports lead‑free soldering and is compatible with single‑sided, double‑sided and multi‑layer through‑hole PCBs. It is widely deployed in power supply, industrial control, home appliance and automotive‑electronics industries with dense through‑hole components.

We select models according to component density, PCB size and daily output. Contact our online team for professional process assessment and project quotation.

2.1 Single Wave Soldering Equipment

Process Principle: Generates a single stable solder wave. Molten solder inside a temperature‑controlled solder pot flows through guide structures to form a smooth, continuous single‑layer solder wave. PCBs pass over the wave to complete full‑board through‑hole soldering with simple, stable operation.

Core Advantages

1. Small footprint, low power consumption and convenient maintenance.
2. Simple operation and parameter setup, ideal for frequent product changeover.
3. Competitive equipment investment and low recurring maintenance cost.
4. Stable solder wave fulfills baseline quality requirements for general through‑hole assemblies.

Application Scenarios: Small‑to‑medium manufacturers, R&D prototyping and low‑volume high‑mix production. For low‑density through‑hole assemblies such as simple home‑appliance boards, basic industrial‑control boards and general power‑supply boards.

Inquire for detailed specifications and favorable quotations for low‑volume through‑hole production and prototyping.

2.2 Dual Wave Soldering Equipment

Process Principle: Industry‑standard turbulent‑wave plus smooth‑wave dual‑stage technology. The high‑pressure turbulent first wave penetrates dense component gaps, flushes pin bottoms and expels trapped air from through holes to eliminate cold‑solder blind spots. The second laminar smooth wave provides uniform solder wetting and finishes joint formation. It is the mainstream THT mass‑production process.

Core Advantages

1. Complementary dual‑wave design reduces missed joints, cold solder, bridging and voids for high‑pin‑density assemblies.
2. Conveyor speed, preheat temperature and wave height are fully adjustable for wide process adaptability.
3. Capable of 24‑hour unattended high‑volume production with stable throughput and high yield.
4. Compatible with most industrial and consumer through‑hole PCBs; standard equipment for large‑scale production lines.

Application Scenarios: Medium‑to‑high‑volume standardized manufacturing: power supply mainboards, industrial‑control boards, automotive through‑hole assemblies and mass‑produced home‑appliance main‑control boards.

Submit your production parameters for customized dual‑wave‑soldering machine selection and quotation for higher throughput and improved soldering quality.

2.3 Selective Wave Soldering Equipment

Process Principle: CNC‑controlled targeted solder jetting and partial dipping. Unlike full‑board wave soldering, the programmable positioning system applies solder waves only to designated through‑hole zones while leaving other areas untouched, achieving precise local THT soldering.

Core Advantages

1. Accurate localized soldering protects SMT components, plastic housings and temperature‑sensitive connectors from high‑temperature damage.
2. Multiple soldering profiles can be stored for fast product switching.
3. No full‑board high‑temperature exposure, minimizing PCB warpage and substrate carbonization.
4. Replaces manual rework, boosting efficiency and consistency for mixed‑technology assemblies.

Application Scenarios: Mixed SMT+THT PCBs, high‑density local through‑hole boards and special‑form assemblies. Widely used in high‑end industrial control, precision instruments, automotive electronics and medical devices requiring high soldering accuracy and substrate protection.

Consult us for precise soldering solutions and quotations for mixed‑technology PCBs and precision local through‑hole soldering.

III. Manual Soldering Station & Rework Equipment Series | Precision Solutions for Prototyping, Repair & Touch‑Up Soldering

Manual soldering stations and rework equipment are essential auxiliary tools for electronics assembly. Designed in accordance with IPC repair standards, they serve R&D prototyping, low‑volume trial runs, production‑line touch‑up, high‑precision chip rework and after‑sales maintenance. Used alongside post‑SMT / post‑THT inspection processes, they maximize rework yield and avoid secondary damage to PCBs and components.

Our portfolio covers general‑purpose touch‑up, semi‑automated manual soldering and precision‑chip rework. Matching units are available for components of varying precision to satisfy full‑cycle R&D, manufacturing and after‑sales demands.

Contact us for targeted model‑selection guidance and quotations.

3.1 Intelligent Constant‑Temperature Soldering Station

Process Principle: High‑precision closed‑loop PID temperature control dynamically compensates tip‑temperature fluctuations, maintaining stable output and preventing soldering defects caused by temperature variation for general‑purpose manual precision soldering.

Core Advantages

1. High temperature accuracy, low fluctuation and fast thermal response.
2. Wide temperature range supports diverse high‑/low‑temperature soldering processes.
3. Thermally stable tips prevent component burnout, cold joints and insufficient wetting.
4. User‑friendly operation, low failure rate and long service life for heavy‑daily‑use scenarios.

Application Scenarios: Laboratory R&D prototyping, on‑site production‑line touch‑up, through‑hole / SMD small‑component repair and field after‑sales maintenance for general‑grade PCBs and components.

Inquire for technical specifications and bulk‑order quotations for high‑reliability general‑purpose touch‑up equipment.

3.2 Auto‑Solder‑Feed Soldering Station

Process Principle: Combines intelligent constant‑temperature soldering with a controlled automatic solder‑feed system. A motor precisely adjusts solder‑feed speed and dosage. Paired with constant‑temperature tips, it achieves quantitative, targeted and uniform solder melting to standardize manual soldering workflows.

Core Advantages

1. Eliminates defects from inconsistent manual solder feeding: uneven joint size and solder waste.
2. Tunable parameters greatly improve solder‑joint consistency and process standardization.
3. Balances precision and throughput, reducing human‑operation errors.
4. Supports fine‑pin component and micro‑joint precision soldering.

Application Scenarios: Refined R&D prototyping, low‑volume manual spot production, wire‑to‑PCB pad bonding and fine‑pin‑component touch‑up requiring consistent solder‑joint appearance.

Contact us online for detailed quotations and process‑adaptation schemes to improve manual soldering quality and efficiency.

3.3 BGA Chip Rework Station

Process Principle: Independent upper‑and‑lower hot‑air heating plus bottom preheating. Customizable temperature profiles match thermal tolerance of different packaged chips and complete full‑standard rework workflow: component desoldering, residual adhesive removal, ball planting, re‑mounting and reflow.

Core Advantages

1. Multi‑zone independently controlled heating delivers localized heating with minimal thermal impact.
2. Profiled temperature control avoids thermal shock and protects PCBs and surrounding components.
3. Supports full workflow: glue removal, ball planting, alignment and reflow for high rework yield.
4. Wide compatibility with many types of precision packaged chips.

Application Scenarios: Rework of bottom‑mount leadless packages including BGA, QFN, LGA and CSP. Used for high‑end electronics repair, precision‑PCB rework, R&D debugging and chip‑package testing.

Share your working conditions for customized BGA rework‑station selection and quotations for precision‑chip rework and advanced‑circuit‑board debugging.

IV. Special Welding Equipment Series | Custom High‑Precision Soldering Solutions for Flexible PCBs, Micro‑Components

Special welding equipment addresses advanced non‑standard precision‑soldering challenges which cannot be handled by conventional reflow and wave soldering. Compliant with international precision‑electronics assembly specifications, it targets flexible substrates, micro‑components, special‑shaped structures and high‑reliability military‑grade requirements. It resolves typical pain points: thermal damage, insufficient positioning accuracy, poor bonding and low yield. It is critical manufacturing equipment for ultra‑thin consumer electronics, precision sensors, medical and military‑grade products.

Custom non‑standard processes and personalized parameter tuning are available for special‑structure PCBs and precision devices. Please connect with our engineers for one‑on‑one customized soldering solutions and quotations.

4.1 Thermal Bonding Equipment (Pulse Heat Bonding Machine)

Process Principle: Integrated pulse‑mode rapid heating, constant‑pressure holding and staged cooling. High‑precision pressure sensors and temperature modules precisely control pressure, temperature and dwell time to form metallurgical bonding between FPC flexible circuits / FFC flat cables and rigid‑board pads.

Core Advantages

1. Precisely controlled uniform pressure prevents flexible‑circuit crushing and conductor fracture.
2. Rapid heating‑and‑cooling confines heat‑affected zones and protects flexible substrates.
3. Smooth, reliable bonded joints eliminate cold joints, false soldering and contact‑failure risks.
4. Multiple process profiles can be stored for fast changeover between different products.

Application Scenarios: Bonding of FPC flexible circuits, FFC flat cables, display cables and precision connector terminals to rigid PCBs. Widely applied in ultra‑thin digital devices, wearables, automotive displays and precision touch‑sensor modules.

Reach out for equipment‑parameter matching and accurate quotations for FPC & flat‑cable thermal bonding applications.

4.2 Laser Precision Soldering Equipment

Process Principle: Highly focused fiber‑laser non‑contact heating. Micron‑level positioning concentrates laser thermal energy exactly at solder spots for localized instantaneous melting. Zero mechanical contact and limited heat conduction make it one of the most precise soldering technologies in the industry.

Core Advantages

1. Micron‑level positioning accuracy and minimal heat‑affected zone (HAZ); no damage to adjacent components and PCB substrates.
2. Non‑contact soldering introduces no mechanical stress, avoiding thin‑board warpage and component damage.
3. Fine, uniform and stable solder joints support mass‑production of ultra‑miniature assemblies.
4. Supports automated programming and special‑contour trajectory soldering, ready for production‑line integration.

Application Scenarios: Ultra‑high‑precision micro‑soldering: 01005 ultra‑miniature components, precision RF modules, ultra‑thin PCBs, micro‑sensors and micro metal‑terminal joints. Used for premium digital hardware, semiconductors, medical electronics, aerospace and military‑grade precision components.

Provide your process requirements to get customized laser‑soldering equipment proposals and quotations for ultra‑high‑precision micro‑soldering tasks.