Find machinery by production stage and the requirements of your line.
Plan the equipment scope
Identify the production step, cell or module format and output unit before comparing equipment. Use the listed source, scope and specifications to prepare a configuration-specific enquiry. Missing values are left unspecified and do not count as exact filter matches.
The ET-V8000/15000 is RoboTechnik's batch machine for alkaline texturing and cleaning of monocrystalline wafers on PERC and TOPCon lines. It is rated at 8000–15000 wafers per hour with availability above 98%. RoboTechnik lists breakage below 0.01% on M10 and below 0.02% on M12, and a footprint of 9700 X 4500 X 2600 mm. Quote it against your wafer format and bath sequence.
Jingsheng's crystal slicing machines cut photovoltaic silicon, semiconductor silicon and sapphire, with a published range of four to twelve inches. Each configuration is set up for particular materials and sizes. Send your ingot geometry, wafer thickness and loading route, and ask Jingsheng to name the model, wire setup and automation it proposes.
HORAD's robotic layup machine picks finished cell strings and places them on glass that servo motors and cylinders have squared on four sides. Software switches panel templates and runs AB string layup. The equipment table lists modules from 1650 × 990 to 2500 × 1400 mm, layup accuracy of ±0.4 mm and a rated power of 10 kW.
The HL-KZPCNS-HO is Hymson's automatic laser doping machine for TOPCon cells. It uses the borosilicate glass layer as the dopant source, places the laser with vision positioning and moves wafers on automated transport. Hymson quotes throughput separately for 182 mm and 210 mm wafers, so ask for the figure that matches your format.
LEAD's PV module manufacturing solution joins factory planning, cell stringing and line integration in one offer. LEAD lists compatibility with TOPCon, XBC and HJT, for cell sizes of 156 to 230 mm. Its picture is a line layout rather than a single stringer, so request a station list and line balance worked out for your own module design.
DR Laser's perovskite scribing system patterns large-area solar cell substrates from a gantry carrying eight to twelve parallel laser channels. Floating clamps and glass hooks hold the glass level, dust extraction runs in step with the laser, and optics are set up per cell stack. DR Laser lists glass up to 1600 × 1000 mm and a scribing speed above 1.5 m/s.
S.C New Energy's tube plasma polysilicon deposition furnace grows tunnel oxide, intrinsic polysilicon and doped polysilicon in one process tube. The company points to controlled doping, light wraparound deposition and a non-hot-wall design. Wafer format and output are set when the furnace is configured for your line.
SC Solar's laminator series bonds the module stack with vacuum, heat and pressure. You choose single, double or triple layers, one to three chambers and oil or electric heating. Published working areas are 2700 × 8700, 2700 × 9400 and 2700 × 10000 mm, with a room-temperature to 180 °C working range, ±1.5 °C uniformity and ±1 °C accuracy.
Jinchen's PERTOP is a tube PECVD solution that deposits silicon oxide and in-situ doped amorphous silicon in one combined process, with built-in attention to dust and film uniformity. It is sold as a configured project, so the model number, tube layout and committed throughput come with Jinchen's proposal for your line.
Autowell's AM050EH/FH stringer cuts cells without damage and solders them into strings in one machine. Autowell lists 156–230 mm cells, a Teflon conveyor for thin cells, several ribbon forms and 0BB upgrade options. The product page rates it at 7,200 strips per hour; ask Autowell how a strip converts to finished strings for your layout.
Maxwell's dual-head, dual-track metallization line loads solar cells, screen prints the grid, then dries and inspects them. Vision positioning aligns the pattern. The product page lists ±6 µm printing accuracy and cell breakage under 0.2% for the generation it describes; ask Maxwell to confirm both figures for the line it offers you.
Guozi sells this as a complete handling system for solar-cell workshops. Mobile robots, robotic arms, conveyors and work-in-process buffers move loaded and empty baskets between process steps. Material management and robot scheduling software tie it together. Fleet size, layout and throughput are designed for each plant, so start the quote with your basket routes.
Exact filters only match published specifications. Listings without that published value are not shown.
Build a useful equipment shortlist
Start with the workpiece and required process output, then choose a production stage. Open each listing to check whether it describes a model, a series, a component or a project application. Then ask the manufacturer to confirm suitability for your production recipe.
Use source values without filling unknowns
Keep original units and test conditions in your comparison. A missing specification remains a question for the supplier. Exact filters only match published values, so a hidden listing may simply lack that value. Review the original manufacturer page and ask for a configuration-specific sheet.
Compare the same supply boundary
List cutting, loading, inspection, handling, software and installation responsibilities for each offer. Keep accepted output distinct from nameplate speed and a line estimate distinct from one station’s capacity. Use the category selection guides to define representative samples and acceptance tests.