Laser Parts  Manufacturers, Traders, Suppliers

LASERVORM offers specialized services in stripping, drilling, and perforating. Stripping involves the precise removal of insulation from cables, ideal for electronics manufacturing. Laser technology is used for drilling to create highly precise holes in various materials, while perforating allows for the application of fine holes across larger areas, useful in several industrial sectors. These processes are known for their accuracy and efficiency, meeting the high demands of modern manufacturing processes.

Laser cutting made easy
At Geers Cutting you can easily calculate your individual laser cuts online in just four steps and order them at a fixed price - around the clock, seven days a week! Fast, cheap and reliable! Save time and costs;
Sheet metal can be cut to size up to the maximum size of
2,980 mm x 1.480 mm from these materials:
  - stainless steel (thickness up to 12 mm)
  - mild steel (thickness up to 20 mm)
  - aluminium (thickness up to 10 mm)

At Geers Cutting you can easily calculate your individual laser cuts online in just four steps and order them at a fixed price - around the clock, seven days a week! Fast, cheap and reliable! Save time and costs;
Sheet metal can be cut to size up to the maximum size of
2,980 mm x 1.480 mm from these materials:
  - Laser cutting of stainless steel (thickness up to 12 mm)
  - Laser cutting of steel and structural steel (thickness up to 20 mm)
  - We laser cut aluminium from a thickness of up to 10 mm
  - Laser cutting from corten steel in a thickness of 1 to 1.5 mm

Schulz Stanztechnik has been in existence as a company for more than 50 years, and operating since 1991 from its premises in Halver on behalf of numerous customers at home and abroad. We produce and assemble a large number of products in differing versions on our production facilities covering more than 2,500 m². Our wide range of products presented to you on this website can cope with practically every conceivable task involved in transporting goods. The main products consist of axial deep groove ball bearings, detailed parts and components for systems used in warehousing, materials moving and transport tasks, stampings and stamped bent parts, together with accessories for cable installation.

CNC-machined laser parts require high precision and thermal stability to ensure optimal performance in laser systems. Materials like aluminum, stainless steel, and copper are chosen for their heat dissipation and corrosion resistance. These parts often feature complex geometries and tight tolerances, with a focus on surface finish quality and optical alignment. Laser parts are critical in industries such as telecommunications, medical devices, and aerospace, where miniaturization and reliability are key.

1. Material Selection
Aluminum (e.g., 6061, 7075): Lightweight, excellent thermal conductivity, and good machinability.
Stainless Steel (e.g., 304, 316): High strength, corrosion resistance, and durability.
Copper (e.g., C11000): Superior thermal and electrical conductivity.
Titanium (e.g., Grade 2, Grade 5): High strength-to-weight ratio and corrosion resistance.
Ceramics (e.g., Alumina, Aluminum Nitride): High thermal stability and electrical insulation.
2. Machining Challenges
High Precision: Laser parts often require tolerances within ±0.01 mm.
Thermal Management: Effective heat dissipation is critical to prevent thermal distortion.
Complex Geometries: Intricate designs with thin walls, small features, and tight clearances.
Surface Finish: Smooth finishes (Ra < 0.8 µm) are often required for optical performance.
Material-Specific Issues:
Aluminum: Soft and prone to burrs.
Stainless Steel: Hard and abrasive, leading to tool wear.
Copper: High thermal conductivity, causing heat buildup.
Ceramics: Brittle and challenging to machine.
3. Tool Selection
Tool Material: Carbide or diamond-coated tools for durability and precision.
Tool Geometry: Sharp cutting edges and polished surfaces to reduce cutting forces and improve finish.
Coolant: Use water-soluble coolants or air blast for effective heat dissipation.
4. Cutting Parameters
Cutting Speed (Vc):
Aluminum: 200-500 m/min
Stainless Steel: 50-150 m/min
Copper: 100-300 m/min
Titanium: 30-80 m/min
Ceramics: 50-150 m/min (specialized tools required).
Feed Rate (f): 0.02-0.1 mm/tooth (lower for finer finishes).
Depth of Cut (ap): 0.5-2 mm (adjust based on material and tool rigidity).
Coolant: Essential to prevent overheating and improve tool life.
5. Surface Finish
Typical Ra Value: < 0.8 µm (often < 0.4 µm for optical surfaces).
Post-Processing: Polishing, anodizing (for aluminum), or coating for improved performance and aesthetics.

1. Laser Systems and Optics
Components: Laser mounts, optical benches, beam splitters, and lens barrels.
Reason: High precision and thermal stability ensure accurate beam alignment and minimal distortion.
2. Telecommunications
Components: Fiber optic connectors, laser diode housings, and waveguide structures.
Reason: Ensures efficient signal transmission and alignment in high-speed communication systems.
3. Medical Devices
Components: Laser surgery tools, dermatology equipment, and diagnostic imaging systems.
Reason: Precision and biocompatibility are crucial for safe and effective medical procedures.
4. Aerospace and Defense
Components: Laser rangefinders, targeting systems, and satellite communication modules.
Reason: Durability and reliability in extreme environments (e.g., temperature fluctuations, vibrations).
5. Industrial Manufacturing
Components: Laser cutting heads, engraving systems, and welding nozzles.
Reason: High thermal resistance and precision for industrial automation and material processing.
6. Automotive Industry
Components: LiDAR sensors, laser welding fixtures, and adaptive headlight systems.
Reason: Enables advanced driver-assistance systems (ADAS) and lightweight manufacturing.
7. Scientific Research
Components: Laser spectroscopy setups, experimental optics, and particle accelerator components.
Reason: Ultra-high precision for accurate data collection and experimentation.
8. Consumer Electronics
Components: Laser projectors, 3D scanning modules, and augmented reality (AR) devices.
Reason: Compact, high-performance components enhance user experience.
9. Energy and Environment
Components: Solar panel alignment systems and laser-based pollution monitoring devices.
Reason: Precision and reliability for sustainable energy and environmental applications.
10. Additive Manufacturing
Components: Laser sintering nozzles and powder bed fusion systems for 3D printing.
Reason: Enables high-resolution printing and complex geometries in metal/plastic parts.