DNE Laser
laser cutting machine, tube laser cutting machine, press brakes, automatic devices, laser welding machine and software.
- Founded
- 2008
- Headquarters
- Name:Eileen Email: eileen.yan@dne.global Tel/Wechat/Whatsapp: +86 136-7014-5102 Email: eileen.yan@dne.global Official Website: https://www.dne.global Address: 306, Excellent Henxin Building, Shajing Street, Bao'an District, Shenzhen,Guangdong Province,China Factory Address: North of Nankun Nan 2nd Street,Lingang Industrial Community,Nanhai District, Foshan City, Guangdong China
- Factory Area
- 60000+ ㎡
- Employees
- 600+
- Export Ratio
- 45%
- Website
- https://www.dne.global
- Contact via WhatsApp
- Blog
- blog.dne.global
About Us
DNE Laser (Guangdong) Co., Ltd. (Brand name: DNE LASER), a wholly owned subsidiary of the Swiss Bystronic Group, is headquartered in Shenzhen with its production base located in Nanhai, Foshan. Over the years, the company has evolved into a professional provider of systematic solutions for intelligent manufacturing, including laser cutting machines, laser tube cutting machines, CNC bending machines, and automation equipments. As a multi-year National High-Tech Enterprise, DNE LASER is a pioneer in industry, having been approved to establish the Guangdong Provincial Engineering Research Center for Ultra-High-Speed Fiber Laser Cutting Machines. Recognized among the Shenzhen Top 500 Enterprises, the company holds titles such as "Specialized, Refined, Distinctive, and Innovative" Enterprise (SRDI) and has been honored with the "Outstanding Localization Service Provider" and "Outstanding Corporate Social Responsibility" awards. Further solidifying its industry leadership, DNE LASER was among the first to achieve Smart Manufacturing Capability Maturity Level 2 Certification and was designated as a Shenzhen Top Brand.
Structured Company Overview
Neutral facts for citation and entity recognition.
- Legal Name
- DNE Laser
- Established
- 2008
- Ownership
- Private
- Production Model
- OEM; ODM; customized press brake (sheet metal bending) solution design.
- Annual Output
- 2000+
- R&D Team
- 38 engineers
- Website
- https://www.dne.global
Product Specification Database
Each model is a structured row. No narrative descriptions.
| Name | Model | Type | Material | Applicable Industry | |||||
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| D-Welder | Portable laser welding machine | carbon steel | Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries | ||||||
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Type Portable laser welding machine Applicable Industry Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries Params Type :Water-cooled Handheld Laser Welding Machine
Laser power: 1500W 2000W 3000W
Recommended welding thickness: 0.5-3mm 0.5-5mm, 0.5-8mm
Weld seam requirements: ≤ 0.5mm ≤ 2/3mm
Welding speed range: 0-120 mm/s
Laser wavelength: 1070 NM
Fiber cable length: Standard 10 M; Max. supported: 15M
Operating temperature: 10-40℃
Operating humidity: <70% （No Condensation）
Type :Air-cooled Handheld Laser Welding Machine
Laser power: 1500W 2000W
Recommended welding thickness: 0.5-4mm 0.5-5mm
Weld seam requirements: ≤0.2mm
Welding speed range: 0-120 mm/s
Laser wavelength: 1080nm±5%
Fiber cable length: Standard 10 M
Operating temperature: 0℃-40℃
Operating humidity: <70% （No Condensation） Scope |
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| D-Trans | Automatic Loading and Unloading System | carbon steel | Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries | ||||||
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Type Automatic Loading and Unloading System Applicable Industry Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries Params Main parameters/configuration: 1530 2040
Material storage type: Single-tower
Material storage: 6/8/12/15 Layers
Maximum sheet metal size: 1500*3000 2000*4000
Sheet metal thickness: 0.8-20mm 0.8-15mm
Loading and unloading system maximum load: 900 kg 1000 kg/1600 kg
Trolley load: 3000kg 5000kg
Maximum load capacity per tabletop: 3t, 3t 5t (optional)
Number of connectable laser cutting machines: 1/2
Layout type: One-to-one / One-to-two
Loading and unloading system type: Frame type
Mechanical vibration for sheet separation: Standard for thin sheets
Mechanical air blowing for sheet layering: Standard configuration
Sheet thickness detection: Standard configuration
Traceless gear shaper: Optional
Raw material/finished product electric trolley: Optional
Double-layer raw material/finished product electric trolley: Optional
Material warehouse trolley: Optional Scope |
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| D-Roller | Fiber Laser Cutting Machine with Coiler and Leveling System | carbon steel | Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries | ||||||
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Type Fiber Laser Cutting Machine with Coiler and Leveling System Applicable Industry Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries Params Feeding width: 100-1500mm
Material thickness (Choose one out of four):
0.3-1.0 mm(Galvanized sheet, ordinary carbon steel)； 0.3-0.5mm（Stainless steel）
0.5-2.0 mm(Galvanized sheet, ordinary carbon steel)；0.5-1.5mm（stainless steel）
0.8-3.0 mm(Galvanized sheet, ordinary carbon steel)；0.8-2mm（stainless steel）
1.0-5.0 mm(Galvanized sheet, ordinary carbon steel)；1.0-3.5mm（stainless steel） Scope |
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| C-Bend S | Electro-Hydraulic Servo Press Brake | carbon steel | Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries | ||||||
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Type Electro-Hydraulic Servo Press Brake Applicable Industry Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries Params Technical indicators Unit: C-Bend S 100/3100
Bending force (kN): 1000
Bending length (mm): 3100
Opening height (mm): 500
Side plate spacing (mm): 2500
Throat depth (mm): 410
Y-axis (oil cylinder) travel (mm): 200
X-axis precision (mm): 0.05
Y-axis precision (mm): 0.01
Technical indicators Unit: C-Bend S 160/3100
Bending force (kN): 1600
Bending length (mm): 3100
Opening height (mm): 600
Side plate spacing (mm): 2500
Throat depth (mm): 410
Y-axis (oil cylinder) travel (mm): 300
X-axis precision (mm): 0.05
Y-axis precision (mm): 0.01 Scope |
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| C-Bend | Professional CNC Press Brake | carbon steel | Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries | ||||||
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Type Professional CNC Press Brake Applicable Industry Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries Params Technical indicators Unit: C-Bend 100/3100, C-Bend 160/3100
Bending force (kN): 1000 1600
Bending length (mm): 3100 3100
Cylinder stroke (mm): 200 300
Opening height (mm): 500 600
Throat depth (mm): 410 410
Side plate spacing (mm): 2500 2500
X-axis precision (mm): 0.05 0.05
Y-axis precision (mm): 0.01 0.01
Technical indicators Unit: C-Bend 160/3100
Bending force (kN): 1600
Bending length (mm): 3100
Cylinder stroke (mm): 300
Opening height (mm): 600
Throat depth (mm): 410
Side plate spacing (mm): 2500
X-axis precision (mm): 0.05
Y-axis precision (mm): 0.01 Scope |
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| D-Tube 520 | fiber tube laser cutting machine | carbon steel | Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries | ||||||
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Type fiber tube laser cutting machine Applicable Industry Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries Params Model: 520
Number of chucks: 3, 4
Loading length: 12.5m
Unloading length: 6.5m 9.2m 12.2m 9.2m 12.2m
Round tube (mm): Φ50-Φ510
Square tube(mm): □50*50-□510*510
Theoretical maximum chuck load: 1500kg
X/Y-axis positioning accuracy: ±0.05mm/m
X/Y-axis repeated positioning accuracy: ±0.03mm/m
Bevel cutting function: Optional Scope |
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| D-Tube 360 | fiber tube laser cutting machine | carbon steel | Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries | ||||||
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Type fiber tube laser cutting machine Applicable Industry Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries Params Model: 360
Number of chucks: 2, 3, 4
Loading length: 6.5m, 6.5m, 9.2m, 12.5m, 12.5m
Unloading length: 2m, 6.5m, 6.5m 9.2m, 6.5m 9.2m 12.2m, 6.5m 9.2m 12.2m
Round tube (mm): Φ40-Φ350
Square tube(mm): □40*40-□350*350
Theoretical maximum chuck load: 1200kg
X/Y-axis positioning accuracy: ±0.05mm/m
X/Y-axis repeated positioning accuracy: ±0.03mm/m
Bevel cutting function: Optional Scope |
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| D-Tube 240 | fiber tube laser cutting machine | carbon steel | Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries | ||||||
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Type fiber tube laser cutting machine Applicable Industry Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries Params Model: 240
Number of chucks: 2, 3
Loading length: 6.5m 6.5m 6.5m 9.2m 12.5m
Unloading length: 2m, 4m, 6.5m, 6.5m 9.2m, 6.5m 9.2m 12.2m
Round tube (mm): Φ15-Φ230
Square tube(mm): □15*15-□230*230
Theoretical maximum chuck load: 300kg
X/Y-axis positioning accuracy: ±0.05mm/m
X/Y-axis repeated positioning accuracy: ±0.03mm/m
Bevel cutting function: Optional Scope |
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| D-Tube F | fiber tube laser cutting machine | carbon steel | Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries | ||||||
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Type fiber tube laser cutting machine Applicable Industry Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries Params Number of chucks: 2
Model: 120 240 360
Round tube (mm): Φ8- Φ120mm, Φ12- Φ240mm, Φ40 - Φ350mm
Square tube(mm): □8*8- □120*120mm, □12*12- □240*240mm, □40*40 - □350*350mm
Theoretical max. chuck load: 100kg 300kg 1000kg
Loading length : 6.5m 6.5m 6.5m
Unloading length: 2m 2m 2m
X/Y-axis positioning accuracy: ±0.05mm/m
X/Y-axis repeated positioning accuracy: ±0.03mm/m
Bevel cutting function: Optional Scope |
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| D-Giant F | fiber laser cutting machine | carbon steel | Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries | ||||||
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Type fiber laser cutting machine Applicable Industry Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries Params Laser source: Fiber Laser Source (optional)
Format: Width:3m /3.5m; Length:12-40m
Laser power: 12000W 20000W 30000W 40000W 60000W 80000W
X/Y-axis Max. linkage acceleration: 0.5G
X/Y-axis Max. linkage positioning speed : 50 m/min
X/Y-axis positioning accuracy: ±0.20mm/10m
X/Y-axis repeated positioning accuracy: ±0.15mm/10m
Power consumption of complete machine: ≤70kW ≤110kW ≤140kW ≤170kW ≤250kW ≤320kW
Bevel cutting function: Optional Scope |
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| D-Giant | fiber laser cutting machine | carbon steel | Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries | ||||||
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Type fiber laser cutting machine Applicable Industry Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries Params Laser source: Fiber Laser Source (optional)
Format: Width:3m /3.5m/ 4m /4.5m /5m; Length:12-40m
Laser power: 12000W 20000W 30000W
X/Y-axis Max. linkage acceleration (Follow-up enclosure): 0.5G
X/Y-axis Max. linkage positioning speed (Follow-up enclosure): 50m/min
X/Y-axis positioning accuracy: ±0.15mm/10m
X/Y-axis repeated positioning accuracy: ±0.10mm/10m
Power consumption of complete machine: ≤70kW ≤110kW ≤140kW
Bevel cutting function: Optional Scope |
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| D-Soar Plus-G | fiber laser cutting machine | carbon steel | Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries | ||||||
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Type fiber laser cutting machine Applicable Industry Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries Params Laser source: Fiber Laser Source(optional)
Format: 2040 2060 2560 2580
Laser power: 12000W 20000W 30000W 40000W
X/Y-axis maximum linkage acceleration: 2.8 G
X/Y-axis maximum linkage positioning speed : 280 m/min
X/Y-axis positioning accuracy : ±0.05mm
X/Y-axis repeated positioning accuracy: ±0.02mm
Power consumption of complete machine: ≤60kW ≤80kW ≤110kW ≤150kW Scope |
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| D-Soar Plus-PG | fiber laser cutting machine | carbon steel | Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries | ||||||
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Type fiber laser cutting machine Applicable Industry Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries Params Laser source Fiber Laser Source(optional)
Format 2040 2060 2560 2580
Laser power 12000W 20000W 30000W
X/Y-axis maximum linkage acceleration 1.8 G
X/Y-axis maximum linkage positioning speed 180 m/min
X/Y-axis positioning accuracy ±0.05mm
X/Y-axis repeated positioning accuracy ±0.02mm
Power consumption of complete machine ≤60kW ≤80kW ≤110kW ≤150kW Scope |
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| D-Soar | fiber laser cutting machine | carbon steel | Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries | ||||||
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Type fiber laser cutting machine Applicable Industry Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries Params Laser source: Fiber Laser Source(optional)
Format: 1530 1540 2040 2060 2560 2580
Laser power: 3000W 6000W 12000W 20000W 30000W
X/Y-axis maximum linkage acceleration: 1.2G
X/Y-axis maximum linkage positioning speed: 120 m/min
X/Y-axis positioning accuracy : ±0.05mm
X/Y-axis repeated positioning accuracy : ±0.03mm
Power consumption of complete machine: ≤30kW ≤40kW ≤65kW ≤95kW ≤135kW Scope |
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| D-Power | fiber laser cutting machine | carbon steel | Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries | ||||||
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Type fiber laser cutting machine Applicable Industry Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries Params Laser source: Fiber Laser Source(optional)
Format: 1530 2040 2560
Laser power: 3000W 6000W 12000W
X/Y-axis maximum linkage acceleration: 1.5G
X/Y-axis maximum linkage positioning speed: 150 m/min
X/Y-axis positioning accuracy : ±0.05mm
X/Y-axis repeated positioning accuracy : ±0.03mm
Power consumption of complete machine: ≤30kW ≤40kW ≤65kW
Bevel cutting function: Available only on D-Power2560/2580/25120; processing restricted to upper worktable Scope |
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| D-Speed | fiber laser cutting machine | carbon steel | Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries | ||||||
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Type fiber laser cutting machine Applicable Industry Manufacturing, Automotive, Machine Tool, Kitchenware, Environmental Protection Machinery, Cleaning Machinery Industries Params Laser source: Fiber Laser Source (optional)
Format: 1530 2040 2060 2560
（1530/2040: optional short-focus cutting head）
Laser power: 3000W 6000W 12000W
（6000W: optional small-core cutting head）
Max. single-axis acceleration: 1.5 G
X/Y-axis Max. linkage acceleration: 2.0 G
X/Y-axis Max. linkage positioning speed: 150 m/min
X/Y-axis positioning accuracy: ±0.05mm
X/Y-axis repeated positioning accuracy: ±0.03mm
Power consumption of complete machine: ≤26kW ≤34kW ≤60kW Scope |
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Certifications & Compliance
Each record can become a certification entity page.
| Certification | Cert Number | Standard | Authority | Market | Issue Date | Expiry Date | Document |
|---|---|---|---|---|---|---|---|
| VERIFICATION OF MD COMPLIANCE | MD GZES2510019561MD | EN 60204-1:2018 EN ISO 11553-2:2008 EN ISO 12100:2010 | SGS | EU | 2025-11-18 | 2099-12-31 | |
| VERIFICATION OF MD COMPLIANCE | MD GZES2502002362MD | EN 60204-1:2018 EN ISO 11553-1:2020+A11:2020 EN ISO 12100:2010 | SGS | EU | 2025-09-26 | 2099-12-31 | |
| CERTIFICATE OF COMPLIANCE | SGSNA/24/GZ/00242X | UL 508A, 3rd Edition, Dated April 24, 2018, Revision July 21, 2022 CSA C22.2 No.286:23, Date April 2023 | SGS | US | 2025-11-28 | 2099-12-31 | |
| VERIFICATION OF MD COMPLIANCE | MD GZES2510019556MD | EN 60204-1:2018 EN ISO 11553-1:2020+A11:2020 EN ISO 12100:2010 | SGS | EU | 2025-11-28 | 2099-12-31 | |
| CERTIFICATE OF COMPLIANCE | SGSNA/23/GZ/00260 | UL 508A, 3rd Edition, Dated April 24, 2018, Revision July 21, 2022 | SGS | US | 2025-12-16 | 2099-12-31 | |
| VERIFICATION OF MD COMPLIANCE | MD GZES2510019558MD | EN 12622:2009+A1:2013 EN 60204-1:2018 EN ISO 12100:2010 | SGS | EU | 2025-12-12 | 2099-12-31 | |
| CERTIFICATE OF COMPLIANCE | SGSNA_24_GZ_00288X | UL 508A, 3rd Edition, Dated April 24, 2018, Revision July 21, 2022 CSA C22.2 No.286:23, Date April 2023 | SGS | US | 2025-11-28 | 2099-12-31 | |
| VERIFICATION OF MD COMPLIANCE | MD GZES2510019554MD | EN 60204-1:2018 EN ISO 11553-1:2020+A11:2020 EN ISO 12100:2010 | SGS | EU | 2025-11-27 | 2099-12-31 | |
| CERTIFICATE OF COMPLIANCE | SGSNA_23_GZ_00186U | UL 508A, 3rd Edition, Dated April 24, 2018, Revision July 21, 2022 CSA C22.2 No.286:23, Date April 2023 | SGS | US | 2025-11-24 | 2099-12-31 | |
| VERIFICATION OF MD COMPLIANCE | MD GZES2510019552MD | EN 60204-1:2018 EN ISO 11553-1:2020+A11:2020 EN ISO 12100:2010 | SGS | EU | 2025-11-27 | 2099-12-31 |
Applications & Industries
Taxonomy-backed tags to form industry ↔ supplier ↔ product relationships.
| Industry | Country | Working Condition | Project Type | Function | Operation Mode | Special Requirement | Matched Equipment |
|---|---|---|---|---|---|---|---|
| Agricultural machinery manufacturing; automotive manufacturing; construction machinery manufacturing; machinery and plant engineering; transport systems manufacturing; telecommunications equipment manufacturing; construction; kitchenware manufacturing; aerospace manufacturing. | DE,FR,ZA,EG,AE,SA,TR,MA,IN,KR,VN,ID,AU,AT,TH,IT,PT,GR,SE,DK,SI,RS,UA,ES,BG,PL,CZ,HU,IE,EE,LV,LT,RO,F | Industrial plant environments; high-dust metal processing workshops; 24/7 continuous operation; ambient-temperature industrial production environment. | Tube processing line upgrades and retrofits; smart tube processing line setup for new factories; precision metal tube component manufacturing projects; large-scale structural steel tube processing projects. | High-precision cutting of various metal tubes and profiles (including irregular shapes); automated tube cutting; improved productivity in tube processing; reduced material waste. | 24/7 continuous automated operation; intelligent CNC system control; multi-chuck synchronized operation; real-time adjustable process parameters. | High-precision cutting capability; compatibility with multiple tube materials; zero/short remnant cutting capability; compliance with CE safety standards; stable clamping for heavy-duty tubes. | Optional fully/semi-automatic loading systems; automatic unloading and remnant handling systems; follow-up support and centering devices for assisted loading; customized tube nesting software. |
| Agricultural machinery manufacturing; automotive manufacturing; construction machinery manufacturing; machinery and plant engineering; transport systems manufacturing; telecommunications equipment manufacturing; construction; kitchenware manufacturing; aerospace manufacturing. | US,GB,ZA,EG,AE,SA,TR,MA,IN,KR,VN,ID,AU,AT,TH,IT,PT,GR,DE,FR,SE,DK,SI,RS,UA,ES,BG,PL,CZ,HU,IE,EE,LV,L | Industrial plant environments; high-dust workshop conditions; continuous operation scenarios; ambient-temperature industrial production environments. | Production line upgrade and retrofit projects; smart manufacturing line setup for new factories; precision metal component processing projects; large-scale sheet metal fabrication projects. | High-precision cutting of metal sheets; improved processing efficiency; automated metal fabrication; ensured stability and consistency of cutting processes. | 24-hour continuous automated operation; intelligent CNC system control; on-demand adjustable process parameters. | High-precision cutting capability; high-speed operational stability; durability for continuous operation; compliance with CE safety standards. | Optional MES central control system; automated loading and unloading systems; integrated laser control system; nesting software, etc. |
| Agricultural machinery; machinery and plant engineering; transport systems; construction; automotive; construction machinery; telecommunications; kitchenware; aerospace, etc. | ZA,EG,AE,SA,TR,MA,IN,KR,VN,ID,AU,AT,TH,IT,PT,GR,DE,FR,SE,DK,SI,RS,UA,ES,BG,PL,CZ,HU,IE,EE,LV,LT,RO,F | Industrial workshop environments; standard conditions for sheet metal cutting; suitable for processing a wide range of metal materials from thin to thick plates. | Industrial manufacturing and processing projects; equipment component production; metal structure fabrication across various industries. | High-precision, high-efficiency cutting of steel, aluminum, and non-ferrous metal sheets; meeting forming and processing requirements for metal components across industries. | 7×24 industrial-grade continuous operation; CNC automated control; support for handheld remote controller operation. | Designed for high-precision and high-speed cutting; supports thick plate piercing and flying cutting processes; ensures industrial-grade stability and durability. | Chiller; laser source; electrical control cabinet; compatible with DNE Power CAM nesting software; optional hydraulic lift exchange table. |
| Agricultural machinery manufacturing; automotive manufacturing; construction machinery manufacturing; machinery and plant engineering; transport systems manufacturing; telecommunications equipment manufacturing; construction; kitchenware manufacturing; aerospace manufacturing. | ZA,EG,AE,SA,TR,MA,IN,KR,VN,ID,AU,AT,TH,IT,PT,GR,DE,FR,SE,DK,SI,RS,UA,ES,BG,PL,CZ,HU,IE,EE,LV,LT,RO,F | Industrial plants; standard sheet metal fabrication workshops; 24/7 continuous operation; ambient industrial production environment. | Sheet metal bending production line upgrades; smart bending line setup for new factories; precision sheet metal bending projects; large-scale structural steel plate bending projects. | High-precision bending and forming of various metal sheets; automated sheet metal bending processing; improved bending productivity; ensured consistency and accuracy of bending operations. | 24/7 continuous automated operation; CNC system with touchscreen control; multi-axis synchronized precision motion; on-demand adjustable process parameters. | High-precision bending capability; adaptability to complex workpieces; long-term operational stability under continuous production; 360° safety protection; accurate crowning (deflection compensation). | Euro-B standard press brake tooling; automatic sheet support systems; integrated bending and cutting production line equipment. |
Industries (4) → Products (16 models) → Certifications (10)
Manufacturing Capabilities
Core processes and equipment available in-house.
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Customization
Press brake models; control systems (CybTouch 12/15; Delem DA-53T; Delem DA-66T); backgauge axes (2-axis / 4-axis); safety protection systems; tooling configuration; auxiliary systems such as hydraulic cooling and electrical cabinet air conditioning.
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Monthly Capacity
Mass production capability; able to meet order demands of varying scales.
⏱️
Lead Time
Customized based on actual order volume and project requirements.
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Export Markets
Global sheet metal processing and equipment manufacturing market, with key coverage in automotive, machinery, and steel structure industries.
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After Sales
Remote technical support and troubleshooting; on-site installation, commissioning, and operator training; scheduled maintenance services; core component warranty; bending process optimization and lifetime technical upgrade support.
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Quality Control
Full-process factory performance testing; precision calibration of all axes; continuous bending trial run of the complete machine; compliance verification of core component brands; testing in accordance with industrial press brake safety and accuracy stan
Project References / Cases
Verified project records. Client names anonymized where requested.
| Client Type | Country | Quantity | Application | Duration | Result | Highlight |
|---|---|---|---|---|---|---|
| Automotive Manufacturing | VN | 9 units | Automobile, parts and components manufacturing | Has been used for 1 year. | Improving production process, improved production efficiency 15% | Faster speed on cutting. Low maintenance, long lifespan. |
| Industrial Automation | MX | 6 units(Mexico) | Core Business: Research, development, production and sales of intelligent equipment and precision structural parts: data infrastructure, logistics automation； | 3 sets has been used for 3 years, and purchased 3 more news sets; | improving production process, improved production efficiency 15%. | Faster speed on cutting. Low maintenance, long lifespan. |
Comparative Positioning
Side-by-side benchmarks against peer manufacturers in this segment.
| Compared To | Difference | Performance Gap | Best For | Cost Difference | Efficiency |
|---|---|---|---|---|---|
| Conventional standard laser tube cutting machines; semi-automatic tube cutting equipment; laser tube cutting machines from other brands within the same power range. | Higher cutting precision; capability for zero/short remnant cutting; more stable multi-chuck synchronized clamping; more efficient automated loading and unloading; compatibility with various types of irregular tubes and profiles; more durable machine bed structure resistant to deformation. | Positioning accuracy: ±0.05 mm/m—significantly outperforming conventional tube cutting machines. Zero remnant cutting capability increases material utilization by over 20%. Automated loading cycle time ≤ 30 s, greatly reducing loading time. Stable clamping for heavy-duty tubes. Positioning acceleration: 1.0G; cutting efficiency improved by over 50%. | Tube manufacturing for agricultural machinery, automotive, and construction machinery; aerospace precision tube processing; batch processing of structural and irregular tubes; integrated smart tube processing production lines; applications requiring high material utilization and cutting precision. | Slightly higher initial investment than traditional semi-automatic tube cutting equipment, but lower total cost of ownership (TCO). Zero/short remnant cutting reduces material waste; automation lowers labor costs; overall processing cost is significantly reduced. | Higher laser power utilization; configurable power range from 3–30 kW to match different tube cutting requirements. Automated synchronized operation reduces idle time, lowering energy consumption per unit output. Stable continuous operation ensures better energy efficiency under equivalent production capacity. |
| Conventional standard laser cutting machines; laser cutting machines from other brands within the same power range. | Higher acceleration and positioning speed; improved cutting efficiency; superior machining accuracy; stronger dynamic stability during high-speed operation; higher level of automation integration; more convenient maintenance. | Maximum simultaneous acceleration: 2.0G; maximum positioning speed: 150 m/min—significantly exceeding conventional machines. Overall cutting efficiency for 1–3 mm sheets increased by 22%; 7 Hz configuration delivers 15% higher efficiency compared to 5 Hz models. Bed deformation resistance increased by 37%; structural strength improved by 51%. Z-axis speed increased by 33%. Automation setup and commissioning time reduced by 70–90%. | Agricultural machinery, automotive, and construction machinery manufacturing; aerospace precision processing; medium-to-large batch sheet metal fabrication; smart manufacturing production lines; high-efficiency and high-precision metal cutting applications. | Slightly higher initial investment than conventional laser cutting machines, but lower total cost of ownership (TCO). Reduced labor and commissioning costs; standardized consumables help lower maintenance expenses. | Higher laser power utilization; significantly reduced idle stroke time during high-speed operation, lowering energy consumption per unit output. Improved overall processing efficiency reduces machine runtime for the same production volume, further optimizing energy consumption. |
| Conventional laser cutting machines; fiber laser cutting machines from other brands within the same power range; traditional metal cutting equipment (e.g., plasma cutting machines, flame cutting machines). | Wide power range up to 30 kW for stronger cutting capability; self-developed cutting head for superior precision and stability; specially treated machine bed structure to prevent long-term deformation; advanced intelligent cutting processes for higher productivity; user-friendly and highly adaptable nesting software; in-house manufacturing of core components for lower after-sales and maintenance costs. | Positioning accuracy: ±0.05 mm; repeat positioning accuracy: ±0.03 mm. Maximum X/Y simultaneous positioning speed: 120 m/min; acceleration: 1.2G. Capable of cutting up to 60 mm carbon steel / stainless steel—significantly improved thick plate cutting performance compared to conventional mid- and low-power laser machines. Compared with traditional cutting equipment, delivers substantially higher cutting speed and precision with lower consumable wear. | Mid-to-high-end industrial manufacturing scenarios requiring high precision and high-speed sheet metal cutting; applications involving a wide range of materials from thin to thick plates; large-scale industrial production environments prioritizing high efficiency and low maintenance costs. | Relatively competitive initial investment; higher cost-performance ratio compared to similar configurations from competitors; low maintenance costs and minimal consumable wear; high throughput increases per-part profitability; lower total operating cost over the long term. | High-power fiber laser technology provides higher energy conversion efficiency compared to conventional laser and traditional metal cutting equipment; lower energy consumption for cutting identical workpieces. High processing speed increases output per unit time, significantly improving overall energy efficiency. |
| Conventional CNC press brakes; traditional hydraulic press brakes; other brands with similar specifications. | Higher bending accuracy; servo-hydraulic system with superior energy efficiency; more precise automatic crowning (deflection compensation); enhanced flexibility with C-frame design; faster multi-axis synchronization response; more comprehensive safety protection; wider tooling compatibility | Y-axis accuracy: 0.01 mm; X/R-axis accuracy: 0.05 mm—significantly outperforming conventional machines. Servo system energy savings: 20–30%; oil temperature reduced by 10–20°C; noise reduced by 40–60%. Ram return efficiency increased by 5–20%; setup time reduced by over 60%. C-frame design eliminates discharge limitations, increasing processing range by over 30%. | Sheet metal fabrication in agricultural machinery, automotive, and construction machinery industries; aerospace precision sheet metal processing; batch bending of structural steel plates; kitchenware sheet metal forming; integrated smart bending production lines; high-precision and high-efficiency sheet metal bending applications. | Slightly higher initial investment compared to conventional hydraulic press brakes, but lower total cost of ownership (TCO). Servo energy savings reduce power consumption costs; automated precision bending minimizes rework; automatic crowning reduces manual setup costs; overall processing cost is significantly reduced. | Servo motor-driven hydraulic pump reduces energy consumption by 20–30% compared to conventional hydraulic systems. Multi-axis synchronized motion reduces idle stroke time, lowering per-part energy consumption. Continuous operation with oil temperature reduced by 10–20°C prevents overheating-related downtime and improves overall energy utilization. |
Risk & Trust Signals
Aggregated data-driven indicators. Not an endorsement.
✓ Overall Trust Score
78/100
Based on 14 verified signals
✓ Positive Signals
Trade RegistrationVerified
Alibaba Gold SupplierYes (5+ yrs)
Audited by 3rd Party2024
On-time Delivery Rate94%
⚠ Risk Items
Tube positioning errors during high-speed cutting; slippage or loosening of heavy tubes in the chuck; sagging or oscillation of long tubes affecting cutting accuracy; dust ingress into chucks causing component damage; safety incidents due to operational mistakes; material waste from tube cutting remnants; long-term deformation of machine bed during continuous operation.1. High-precision linear guides combined with rack-and-pinion transmission to ensure stable motion.
2. Fully automatic centering chucks with fully sealed design, providing constant clamping force without loosening.
3. Synchronized auxiliary support devices to prevent tube sagging and oscillation.
4. Centering devices to improve tube clamping accuracy.
4. Safety sliding doors and radiation-proof windows compliant with CE standards to prevent operational hazards.
5. Multi-chuck coordinated cutting enables zero or minimal remnant material, reducing waste.
6. Machine bed and crossbeam undergo high-temperature annealing and gantry milling to prevent deformation.
Enterprise Measure1. Full-process factory performance testing and precision calibration prior to delivery.
2. Customizable cutting software with real-time adjustable process parameters to minimize operator errors.
3. Specialized training for machine operation and maintenance provided to customers.
4. Core components sourced from well-known German, Japanese, and domestic brands to ensure equipment reliability.
5. Remote equipment status monitoring with early fault warning system.
6. Scheduled on-site maintenance, periodic recalibration, and precision verification services.
Cutting accuracy errors during high-speed operation; component wear caused by machine vibration; equipment malfunctions due to workshop dust; safety incidents from operational mistakes; long-term component aging; equipment damage during transportation.1. 7 Hz low-pass filtering technology to suppress high-frequency vibrations and reduce cutting errors.
2. T-slot welded machine bed made of low-alloy high-strength structural steel to absorb cutting vibrations.
3. Independent dust- and vibration-proof electrical cabinets to isolate critical components from contaminants and vibration.
4. Safety interlocks and radiation-proof windows to prevent operational errors and protect against radiation hazards.
5. Proprietary cutting head and high-performance Z-axis drive system to enhance component durability.
6. Complete machine packaging with cushioning materials and containerized transport to ensure safe shipping.
Enterprise Measure1. Full-process factory performance testing and precision calibration prior to shipment.
2. Cutting software with real-time adjustable process parameters to reduce operator errors.
3. Comprehensive training for customers on machine operation and maintenance.
4. Remote equipment status monitoring with early warning for potential faults.
5. Scheduled on-site maintenance and servicing.
6. Standardized vacuum moisture-proof packaging and customized crating solutions for safe transport.
Contamination or damage of cutting head protective lenses; sheet collision during cutting; slag accumulation during thick plate piercing; thermal drift caused by excessive cutting head temperature.1. Cutting head equipped with protective lens monitoring module, multi-parameter temperature and gas pressure monitoring with alarm system; five-channel water cooling combined with copper nozzle air cooling for effective thermal control.
2. 30 kW models feature a hollow base frame; integrated die-cast aluminum gantry with high-temperature annealing; mechanically optimized embedded welded bed structure.
3. Built-in anti-collision detection with alarm function; one-click automatic calibration to ensure accuracy.
4. Equipped with thick plate rapid piercing and automatic slag removal processes; optimized cut-off (lead-out) technology to prevent slag buildup.
5. Safety sliding doors and radiation-proof windows, compliant with CE standards for radiation protection.
6. Customized cutting control system with real-time adjustable process parameters to minimize process-related errors.
Enterprise Measure1. Cutting head developed by engineers with over 10 years of experience; precision-machined using advanced imported equipment and assembled in Class 10 cleanroom conditions.
2. Core machine structures undergo strict CNC high-temperature annealing; full-process quality inspection prior to delivery.
3. Equipped with DNE Power CAM professional nesting software to simplify programming and reduce human error.
4. Integrated intelligent cutting processes for automatic optimization of cutting paths and parameters.
5. Remote technical support and on-site after-sales service to ensure rapid issue resolution.
6. Adjustable cutting head alarm thresholds based on customer site conditions; dual alert system (indicator lights + display interface).
Frame deformation affecting bending accuracy; inconsistent bending angles; axis positioning errors during high-speed operation; operational safety incidents; hydraulic system overheating and failures; downtime caused by complex tool changes; bending inaccuracies in complex workpieces.C-frame structure with integral welding and CNC stress-relief annealing to eliminate internal stress and prevent deformation.
CNC-controlled mechanical crowning (deflection compensation) system for automatic correction of bending deformation.
High-precision linear guides and ball screw drives to ensure accurate multi-axis positioning.
360° full enclosure safety protection with optional laser safety system to prevent operational hazards.
Servo-hydraulic system reduces oil temperature and noise, minimizing hydraulic failures.
Euro-B tooling with quick clamping system for rapid tool changes.
Multi-axis CNC system enables precise control of complex bending sequences.
Enterprise MeasureComprehensive factory performance testing and axis accuracy calibration before delivery.
Multiple CNC control system options to match different processing requirements and reduce operational errors.
Specialized training for machine operation and bending processes.
Use of well-known brand core components to ensure equipment reliability.
Remote equipment condition monitoring with early warning for hydraulic and CNC system faults.
Scheduled on-site maintenance and periodic accuracy recalibration services; free updates of bending process parameters.
ℹ Additional Info
Last Verified2026-06-08 11:13:42
Data SourcesAICPA, Alibaba, TÜV
Profile Completeness91%
Purchase & Trade Information
Trading terms and procurement details.
ℹ Purchase Details
MOQ1 unit
Delivery MethodVietnam：Method of goods delivery ( FOB/CIF)
AcceptanceOn-site inspection at supplier’s factory, and commissioning at the buyer’s factory.
Payment Terms20% or 30% as deposit, balance to be paid before shipping
ℹ Purchase Details
MOQ1 unit
Delivery MethodMexico： Method of goods delivery ( FOB/CIF/EXW/DDP/DAP)
AcceptanceOn-site inspection at supplier’s factory, and commissioning at the buyer’s factory.
Payment Terms 20% or 30% as deposit, balance to be paid before shipping.
Product Comparison
Comparative analysis against alternative solutions.
| Compared To | Difference | Performance Gap | Best For | Cost Difference | Efficiency |
|---|---|---|---|---|---|
| Conventional standard laser tube cutting machines; semi-automatic tube cutting equipment; laser tube cutting machines from other brands within the same power range. | Higher cutting precision; capability for zero/short remnant cutting; more stable multi-chuck synchronized clamping; more efficient automated loading and unloading; compatibility with various types of irregular tubes and profiles; more durable machine bed structure resistant to deformation. | Positioning accuracy: ±0.05 mm/m—significantly outperforming conventional tube cutting machines. Zero remnant cutting capability increases material utilization by over 20%. Automated loading cycle time ≤ 30 s, greatly reducing loading time. Stable clamping for heavy-duty tubes. Positioning acceleration: 1.0G; cutting efficiency improved by over 50%. | Tube manufacturing for agricultural machinery, automotive, and construction machinery; aerospace precision tube processing; batch processing of structural and irregular tubes; integrated smart tube processing production lines; applications requiring high material utilization and cutting precision. | Slightly higher initial investment than traditional semi-automatic tube cutting equipment, but lower total cost of ownership (TCO). Zero/short remnant cutting reduces material waste; automation lowers labor costs; overall processing cost is significantly reduced. | Higher laser power utilization; configurable power range from 3–30 kW to match different tube cutting requirements. Automated synchronized operation reduces idle time, lowering energy consumption per unit output. Stable continuous operation ensures better energy efficiency under equivalent production capacity. |
| Conventional standard laser cutting machines; laser cutting machines from other brands within the same power range. | Higher acceleration and positioning speed; improved cutting efficiency; superior machining accuracy; stronger dynamic stability during high-speed operation; higher level of automation integration; more convenient maintenance. | Maximum simultaneous acceleration: 2.0G; maximum positioning speed: 150 m/min—significantly exceeding conventional machines. Overall cutting efficiency for 1–3 mm sheets increased by 22%; 7 Hz configuration delivers 15% higher efficiency compared to 5 Hz models. Bed deformation resistance increased by 37%; structural strength improved by 51%. Z-axis speed increased by 33%. Automation setup and commissioning time reduced by 70–90%. | Agricultural machinery, automotive, and construction machinery manufacturing; aerospace precision processing; medium-to-large batch sheet metal fabrication; smart manufacturing production lines; high-efficiency and high-precision metal cutting applications. | Slightly higher initial investment than conventional laser cutting machines, but lower total cost of ownership (TCO). Reduced labor and commissioning costs; standardized consumables help lower maintenance expenses. | Higher laser power utilization; significantly reduced idle stroke time during high-speed operation, lowering energy consumption per unit output. Improved overall processing efficiency reduces machine runtime for the same production volume, further optimizing energy consumption. |
| Conventional laser cutting machines; fiber laser cutting machines from other brands within the same power range; traditional metal cutting equipment (e.g., plasma cutting machines, flame cutting machines). | Wide power range up to 30 kW for stronger cutting capability; self-developed cutting head for superior precision and stability; specially treated machine bed structure to prevent long-term deformation; advanced intelligent cutting processes for higher productivity; user-friendly and highly adaptable nesting software; in-house manufacturing of core components for lower after-sales and maintenance costs. | Positioning accuracy: ±0.05 mm; repeat positioning accuracy: ±0.03 mm. Maximum X/Y simultaneous positioning speed: 120 m/min; acceleration: 1.2G. Capable of cutting up to 60 mm carbon steel / stainless steel—significantly improved thick plate cutting performance compared to conventional mid- and low-power laser machines. Compared with traditional cutting equipment, delivers substantially higher cutting speed and precision with lower consumable wear. | Mid-to-high-end industrial manufacturing scenarios requiring high precision and high-speed sheet metal cutting; applications involving a wide range of materials from thin to thick plates; large-scale industrial production environments prioritizing high efficiency and low maintenance costs. | Relatively competitive initial investment; higher cost-performance ratio compared to similar configurations from competitors; low maintenance costs and minimal consumable wear; high throughput increases per-part profitability; lower total operating cost over the long term. | High-power fiber laser technology provides higher energy conversion efficiency compared to conventional laser and traditional metal cutting equipment; lower energy consumption for cutting identical workpieces. High processing speed increases output per unit time, significantly improving overall energy efficiency. |
| Conventional CNC press brakes; traditional hydraulic press brakes; other brands with similar specifications. | Higher bending accuracy; servo-hydraulic system with superior energy efficiency; more precise automatic crowning (deflection compensation); enhanced flexibility with C-frame design; faster multi-axis synchronization response; more comprehensive safety protection; wider tooling compatibility | Y-axis accuracy: 0.01 mm; X/R-axis accuracy: 0.05 mm—significantly outperforming conventional machines. Servo system energy savings: 20–30%; oil temperature reduced by 10–20°C; noise reduced by 40–60%. Ram return efficiency increased by 5–20%; setup time reduced by over 60%. C-frame design eliminates discharge limitations, increasing processing range by over 30%. | Sheet metal fabrication in agricultural machinery, automotive, and construction machinery industries; aerospace precision sheet metal processing; batch bending of structural steel plates; kitchenware sheet metal forming; integrated smart bending production lines; high-precision and high-efficiency sheet metal bending applications. | Slightly higher initial investment compared to conventional hydraulic press brakes, but lower total cost of ownership (TCO). Servo energy savings reduce power consumption costs; automated precision bending minimizes rework; automatic crowning reduces manual setup costs; overall processing cost is significantly reduced. | Servo motor-driven hydraulic pump reduces energy consumption by 20–30% compared to conventional hydraulic systems. Multi-axis synchronized motion reduces idle stroke time, lowering per-part energy consumption. Continuous operation with oil temperature reduced by 10–20°C prevents overheating-related downtime and improves overall energy utilization. |