Find machinery by production stage and the requirements of your line.
Selection considerations
Where scribing fits in the line
On a crystalline silicon route, laser cell separation normally comes once the cell has passed texturing, diffusion, passivation deposition and metallization. The separated pieces then travel to the cell stringer, so a chipped edge or a misplaced cut tends to surface later as breakage or soldering trouble. A laser doping tool uses similar optics but modifies the emitter instead of cutting, so keep those two purchases apart. On a perovskite or thin-film route, scribing is interleaved with the coating steps: each patterning pass follows one layer and prepares the next. Both cases belong to cell production.
The two machines listed here
The YHS-600 fibre laser scribing machine from Ningbo Yuehao Laser Equipment is a table scriber for silicon cells and wafers. Its 210 mm table sets the largest workpiece and fixture you can bring to a trial. Yuehao offers automatic loading on other models, so ask which loading method the quoted unit carries.
The perovskite solar cell laser scribing system from Wuhan DR Laser Technology moves parallel laser channels over large coated glass on a gantry. It levels the substrate, extracts dust during the cut and uses optics matched to your cell structure. Treat glass handling and the layer-selective cut as separate trial items. If you are planning a complete perovskite plant, set the scriber against the scope of a perovskite line integration offering so the handover between stations is clear.
Matching output to the next stations
For cell cutting, count accepted cells per hour from a timed run on your own cells, then follow those cells through cell material handling and into stringing. Notes on comparing cell stringer throughput help tie upstream output to stringer capacity, which stops a fast scriber from feeding a slower stringer or the reverse. For perovskite patterning, ask DR Laser for the usable processing area and the cycle conditions behind each rate it quotes.
Plan how cut quality is checked after the laser. A visual inspection station can catch chips and wandering lines before cells reach the module line, and the testing and inspection stage lists further options. Use the guide to machine vision in PV equipment to plan alignment and inspection tests, and the one on cell technology compatibility when a scriber is offered for several cell routes. Ask each maker to put the configuration, loading method and trial results into the written offer, then follow the equipment trials, FAT and SAT guide to structure acceptance at the factory and on site.
Plan the equipment scope
For solar cell laser scribing machines, begin your enquiry with cell or substrate material, scribe pattern and loading arrangement. Request a configuration-specific quotation and agree on process width, alignment, damage criteria, extraction and sample acceptance. Each listing shows the published values and the questions to confirm.
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.
The Yuehao YHS-600 is a CNC fibre laser scribing machine for solar cells and wafers, with a 1064 nm, 30 W laser and a 210 by 210 mm table. It is a different machine from Yuehao's single-station and dual-station automatic scribers. Quote it against your cell format, scribe depth and loading method.
Exact filters only match published specifications. Listings without that published value are not shown.
Selection guide
Solar laser scribing covers different workpieces, from individual cells to large-area thin-film substrates. Selection starts with the material stack, intended scribe and workholding method. Compare catalogue speeds together with the path, focus and damage criteria used for the application.
Inputs to prepare before shortlisting
Material stack and pattern
Provide cell or substrate dimensions, layer information and the required scribe path. Distinguish cell separation from patterning a thin-film device.
Workholding and alignment
State registration references, loading method and allowable workpiece movement. Request the proposed vision, clamping and focus-control arrangement.
Extraction and integration
Define dust-extraction boundaries, safety enclosure and line interfaces. Include how parts are identified and rejected after inspection.
Make quotations comparable
Compare a complete job on the same workpiece, not just scan speed. Ask for samples showing line quality, registration and substrate handling. Keep the number of laser channels and their operating assumptions attached to any throughput claim.
Plan the acceptance test
Agree representative samples and measurements for scribe width, placement and the relevant damage or electrical criteria. Record layer stack, recipe and workholding. Include inspection of start, end and corner behavior where relevant to the pattern.
Avoid this comparison mistake
Do not compare a cell-cutting machine directly with a perovskite substrate-patterning system. Similar names can hide different process scope, so compare the step each machine performs.