Project Description
We use fiber laser cutting machines to process a variety of metal structural parts for the new energy industry, including battery brackets, support frames and cabinet accessories. High cutting precision, smooth edge without burr, meet high‑standard industrial assembly requirements. Carbon steel, stainless steel and aluminum alloy are available.
Application & Advantage
- High precision ±0.05mm
- No secondary polishing required
- Batch mass production support
- Flexible custom drawing processing
Segment-oriented Industry Solutions
Photovoltaic Industry
Industry Pain Points
Photovoltaic brackets require large‑batch cutting of carbon steel and aluminum profiles. Traditional sawing often causes burrs, low processing efficiency, and high costs when drawings change frequently.
- Saw cutting leaves burrs and requires secondary grinding
- Frequent drawing changes lead to high mold adjustment costs
- Large‑volume orders need stable continuous production capacity
Our Laser Solution
We provide fiber laser cutting solutions for photovoltaic support profiles. The process supports high‑speed cutting, burr‑free edges, and fast response to drawing revisions without molds.
- High‑speed cutting for carbon steel and aluminum photovoltaic brackets
- No mold required, suitable for frequent drawing changes
- Supports long‑profile batch and continuous production
Energy Storage Industry
Industry Pain Points
Energy storage cabinet shells are usually made of medium‑thick steel plates. Conventional plasma cutting can produce rough seams, which affects subsequent bending, welding and assembly quality.
- Plasma cutting edges are rough and require extra post‑processing
- Mixed orders of small trial batches and mass production are common
- Cabinet shells require good flatness for follow‑up assembly
Our Laser Solution
Medium‑high power fiber laser cutting is used for energy storage cabinet shell parts, helping to improve edge quality and reduce manual repair work.
- Smooth cutting edge and less polishing workload
- Flexible production for both trial batches and mass production
- Better plate flatness for bending and welding processes
Wind Power Industry
Industry Pain Points
Wind power support accessories are often made of heavy steel plates. Traditional flame cutting has a large heat‑affected zone and may cause material deformation and dimensional deviation.
- Flame cutting easily causes thermal deformation of thick plates
- Structural parts require strict dimensional tolerance
- Many non‑standard custom components are involved
Our Laser Solution
High‑power laser cutting is applied to wind power heavy‑plate structural accessories, providing smaller heat influence and more stable custom processing.
- Smaller heat‑affected zone and less plate deformation
- Stable dimensional tolerance for wind power structural parts
- Good adaptability to non‑standard custom drawings
Battery Equipment
Industry Pain Points
Battery module brackets are typical thin‑plate precision parts. Stamping molds are expensive for small‑batch trials, and some complex contours are difficult to complete with stamping.
- High mold cost for small‑batch prototype production
- Complex contours cannot be easily achieved by stamping
- Assembly requires stable precision around ±0.05mm
Our Laser Solution
High‑precision thin‑plate laser cutting is used for battery equipment metal brackets, supporting prototype development and small‑batch production without molds.
- No mold, suitable for prototypes and small‑batch orders
- One‑time forming for complex contours
- Stable cutting precision for assembly requirements
New‑Energy Charging Piles
Industry Pain Points
Charging pile cabinets use mixed‑thickness metal sheets. Mass production requires consistent shell appearance. Traditional cutting produces rough edges and needs lots of manual polishing. Prototype shell revisions happen frequently.
- Traditional cutting brings rough shell edges, heavy post‑polishing work
- Frequent shell outline changes for new‑model prototypes
- Need uniform surface quality for outdoor cabinet appearance
Our Laser Solution
Laser cutting for charging pile cabinet housings and internal support brackets. Achieve clean edges, fast iteration for new prototype shells without extra mould cost.
- Smooth cutting edge, reduce manual polishing workload
- No mould cost, quick response for shell drawing revision
- Stable surface quality for outdoor charging‑pile cabinet production
Hydrogen Energy Equipment
Industry Pain Points
Hydrogen‑energy equipment adopts high‑strength alloy plates. Parts require high sealing‑related dimensional accuracy. Thermal deformation from traditional cutting will affect later assembly & sealing performance.
- Thermal deformation risks will influence sealing assembly
- Strict dimensional tolerance for hydrogen‑related structural parts
- Most projects belong to small‑batch custom development
Our Laser Solution
Low‑heat‑influence high‑precision fiber laser cutting for hydrogen‑energy equipment alloy components, guarantee dimension accuracy for subsequent sealing assembly.
- Small heat‑affected zone, avoid component thermal‑deformation
- High dimensional precision for hydrogen‑equipment sealing parts
- Well‑suited for small‑batch custom hydrogen‑equipment projects