Unit I · Vasai Phata Production Floor

Fiber Laser Cutting Service Vasai - MS, SS, GI, Aluminium · ±0.1mm · Job Work Vasai . Mumbai . Palghar

3000W Fiber Laser · 1500×3000mm Bed · Nitrogen & Oxygen Assist · 20mm MS · ±0.1mm Tolerance · ISO 9001:2015

Aero Enterprises Unit I, Vasai Phata provides fiber laser cutting service in Vasai, Mumbai, and Palghar — a 3000W CNC fiber laser on a 1500×3000mm bed with dual nitrogen and oxygen assist gas cutting MS, GI, SS 304, SS 316, aluminium, brass, and copper to ±0.1mm tolerance. ISO 9001:2015 certified laser cutting service for MS and SS sheet metal job work with automated CAD/CAM nesting, DFM file review, and direct downstream integration into CNC bending, stamping, welding, and powder coating on the same production floor at Unit I.

Unit I · FabricationSurvey No. 109, Richard Compound, Vasai Phata, Vasai East, Palghar 401208
Unit II · Steel SupplyDhumal Nagar, Vasai East, Palghar 401208
ISO 9001:2015  ·  MSME Registered  ·  JSW & TATA Stockist

Expertise and Experience

Aero Enterprises Unit I Vasai Phata operates a 3000W CNC fiber laser cutting system on a 1500×3000mm working bed with dual assist gas capability: nitrogen for oxide-free edges on components going directly to powder coat or cosmetic finishing, and oxygen for high-speed cutting on structural mild steel where edge appearance is secondary to throughput. The fiber laser cuts MS IS 2062, GI IS 277, SS 304 and 316, aluminium, brass, and copper to a positional tolerance of ±0.1mm with maximum cutting thickness of 20mm on mild steel. This is not a standalone laser cutting service. It is the first production stage in Aero Enterprises' integrated fabrication sequence at Unit I, where laser-cut blanks feed directly into stamping presses, CNC press brake bending, welding, and powder coat finishing on the same floor. Clients sourcing laser cutting through Aero Enterprises are not managing a separate cutting vendor and a separate fabrication vendor — they are working with one integrated production system where the cut blank is produced to the specification of every downstream process it will pass through.

Why Our Process Wins

The most expensive laser cutting mistake is not made at the machine. It is made at the file submission stage. A PDF drawing instead of a DXF file, missing kerf compensation, holes smaller than material thickness, or no assist gas specification relative to the downstream coating process produces parts that are dimensionally off, have oxide edges that reject powder coat, or have holes that deform on bending. At Aero Enterprises Unit I, every laser cutting job goes through a DFM file review before the sheet is loaded. Kerf compensation is confirmed, minimum hole diameter is checked against material thickness, assist gas is specified based on the downstream process, and nesting is optimised for material yield before cutting begins. This review eliminates the most common laser cutting failure modes before a single pierce cycle runs.

3000W CNC fiber laser cutting machine at Aero Enterprises Unit I Vasai Phata — MS and SS laser cutting service
Fiber laser cutting MS sheet metal with sparks at Aero Enterprises Unit I — laser cutting job work Vasai
CAD/CAM nested MS sheet on fiber laser cutting bed — laser cutting service near me Vasai Palghar
Laser Source
3000W Fiber Laser
Max Sheet Size
1500 × 3000mm
Cutting Tolerance
±0.1mm Positional
Max Thickness MS
20mm (Oxygen Assist)
Max Thickness SS
8mm (Nitrogen Assist)
Max Thickness Aluminium
10mm
Max Thickness GI
6mm
Max Thickness Brass/Copper
4mm
Assist Gas
Nitrogen (Oxide-Free Edge) · Oxygen (High-Speed MS)
Material Capability
MS IS 2062, GI IS 277, SS 304, SS 316, Aluminium, Brass, Copper
Minimum Hole Diameter
≥ Material thickness (standard tooling)
Kerf Width
0.2–0.3mm (material and thickness dependent)
File Format
DXF preferred — CAD/CAM nesting and kerf compensation applied
Nesting
Automated CAD/CAM — 10–15% material waste target

Machinery · Unit I Vasai Phata

3000W CNC Fiber Laser Cutting System, 1500×3000mm Working Bed, Dual Assist Gas — Nitrogen and Oxygen, Automated CAD/CAM Nesting Software. Integrated with CNC Press Brake, Power Press Floor, Welding, and 7-Tank Powder Coat Line at Unit I Vasai Phata.

Core Capabilities

High-Speed Fiber Laser Profiling: 3000W fiber laser source cutting complex profiles, internal cutouts, slots, perforations, and net-shape blanks to ±0.1mm positional tolerance on a 1500×3000mm working bed. Fiber laser wavelength at 1.06 microns is absorbed more efficiently by metals than CO2 at 10.6 microns, producing faster cutting speeds at equivalent power on all sheet metal thicknesses below 20mm.
Nitrogen-Assist Cutting for Oxide-Free Edges: Nitrogen assist gas delivered coaxially through the cutting nozzle produces a bright, oxide-free cut edge suitable for direct powder coat application without additional edge preparation. Mandatory specification for SS laser cutting to prevent chromium oxide formation at the cut edge, and correct for any MS or GI component going directly to powder coat at Unit I.
Oxygen-Assist Cutting for High-Speed MS Work: Oxygen assist gas exploits the exothermic reaction between oxygen and hot mild steel to increase cutting speed by 20–30% on MS above 3mm compared to nitrogen assist. Correct specification for structural MS components going to welding assembly where cut edge oxidation is not a coating adhesion concern. Assist gas is selected based on the downstream process for every job — not by default.
CAD/CAM Automated Nesting: All laser cutting jobs at Unit I are nested using CAD/CAM nesting software that arranges part profiles on the 1500×3000mm sheet to minimise skeleton scrap and offcut waste. Optimised nesting reduces material waste from 30–40% on manually arranged sheets to 10–15%. At current Mumbai MS and CR mill pricing, this waste reduction translates directly to lower material cost per part.
Micro-Joint Nesting for Small Component Batches: Small components and hardware parts are nested with micro-joint tabs that hold cut parts in the sheet skeleton during cutting, preventing part movement and tip-up that causes collision with the cutting head on thin gauge material. Micro-joints are broken manually after cutting and witness marks dressed before downstream processing.
Complex Geometric Perforation and Internal Cutouts: Ventilation patterns, louvre arrays, decorative perforations, and complex internal cutout geometries that cannot be produced by mechanical shearing or turret punching are within the fiber laser's capability at Unit I. Minimum internal feature size is limited by the kerf width of approximately 0.2–0.3mm at standard production thicknesses.
Rapid Prototype and Short-Run Production: New component geometries can be cut from DXF file to first physical part within the same production day at Unit I without tooling investment or setup cost. This makes fiber laser cutting the correct process for prototype development, design validation, and short-run production before progressive die tooling is committed for high-volume stamping.
Integrated Downstream Processing: Laser-cut blanks at Unit I feed directly into the CNC press brake bending program, stamping press operations, MIG and TIG welding stations, and the 7-tank powder coat pre-treatment line on the same production floor. No external transport, no batch handoff, no inter-vendor communication delay between cutting and downstream fabrication.

Verification Protocol

DFM file review on every new job before sheet is loaded. DXF checked for minimum hole diameter compliance against material thickness, kerf compensation status, feature spacing adequacy, and assist gas specification relative to downstream process. Jobs failing DFM review returned with specific correction notes before cutting begins.

CAD/CAM nesting verification confirming part quantity, orientation, grain direction where specified, and micro-joint placement before the cutting program is approved and the sheet is loaded onto the cutting bed.

First-off dimensional check on all critical dimensions including hole pattern centre-to-centre, profile envelope, internal cutout position, and overall blank dimensions before full sheet batch is cut. Performed using calibrated digital calipers against DXF reference geometry.

Edge burr and dross inspection on first-off and batch samples. Dross on the exit face indicates incorrect cutting parameters for the material and thickness. Any dross formation triggers parameter adjustment before the batch proceeds.

Assist gas verification confirming correct gas type is active before cutting begins on each job. Nitrogen and oxygen lines are clearly labelled and active gas confirmed on the machine controller display before the first pierce cycle.

Dimensional coordinate check on complex profiles and hole patterns using calibrated measurement against DXF reference geometry. Positional deviation outside ±0.1mm on any critical dimension triggers machine recalibration before the batch continues.

At Unit I · Vasai Phata

Stamping Operations

Six stamping and forming operations run simultaneously across the 20-press floor. Each has a correct application — specifying the wrong operation produces defects that cannot be corrected downstream.

nitrogen assist laser cutting

Nitrogen-Assist Cutting

Nitrogen is delivered coaxially through the cutting nozzle at high pressure, preventing oxidation at the cut edge by excluding atmospheric oxygen from the cutting zone. The result is a bright, silver, oxide-free edge directly suitable for powder coat adhesion without additional grinding or preparation. Mandatory for all SS laser cutting. Correct for MS and GI components going directly to powder coat at Unit I.

Applications

SS 304, SS 316 · CR IS 513 · GI IS 277 · Aluminium · Any component going to powder coat

oxygen assist laser cutting ms

Oxygen-Assist Cutting

Oxygen assist exploits the exothermic iron-oxide reaction to add energy to the cutting process, increasing cutting speed by 20–30% on MS above 3mm compared to nitrogen assist at equivalent laser power. Produces an oxide layer on the cut edge which must be removed before powder coat application. Correct for structural MS components going to welding assembly where edge oxidation is not a coating concern.

Applications

MS IS 2062 structural components · Welded assemblies · High-volume structural blanks

laser cutting nesting optimization

Profile Nesting

CAD/CAM nesting software arranges all part profiles on the 1500×3000mm sheet to maximise sheet utilisation and minimise skeleton waste. Manually arranged sheets waste 30–40% of material. Optimised nesting at Unit I targets 10–15% waste. On high-volume batches at current Mumbai MS pricing, this reduction is a direct material cost saving passed to the client through lower per-part cutting cost.

Applications

All production batches — automated nesting is standard at Unit I

laser cutting DFM design for manufacture

DFM File Review

Every new laser cutting job at Unit I is reviewed for design-for-manufacture compliance before the sheet is loaded. The review checks minimum hole diameter against material thickness, feature-to-edge spacing, kerf compensation status, and assist gas specification relative to the downstream fabrication process. Most first-time laser cutting file submissions have at least one issue that would produce a defective part. DFM review catches these before any material is consumed.

Applications

All new component geometries — mandatory before first-off cutting begins

micro joint laser cutting sheet metal

Micro-Joint Nesting

Small components and thin-gauge parts are nested with micro-joint tabs — narrow bridges of uncut material that hold each part in the sheet skeleton during cutting. Without micro-joints, small parts move or tip up during cutting and collide with the cutting head. Micro-joints are broken manually after cutting and witness marks are dressed before downstream processing.

Applications

Small hardware parts · Thin gauge components · High-density nesting batches

laser cutting prototype sheet metal

Prototype Cutting

New component geometries from DXF file to first physical part within the same production day — no tooling cost, no minimum order quantity for prototype runs. Correct for design validation, fit checking, and pre-production sampling before CNC press brake bending programs and progressive die tooling are committed. Aero Enterprises runs prototype cutting as a standard service at Unit I alongside production batches.

Applications

New product development · Design validation · Pre-production fit checks · Engineering change verification

Which Process Is Right For You?

Progressive vs Compound
vs Deep Draw Die

Die type determines per-part cost, tooling investment, and achievable tolerance. Wrong die type for the volume produces either over-investment or inadequate batch consistency.

Oxide-Free — Powder Coat Ready

Nitrogen Assist

SpeedStandard — optimised for edge quality
Feed MethodSheet on cutting bed, automated program
Tool CostMedium — nitrogen consumption per sheet
Accuracy±0.1mm · Bright silver edge, zero oxide

Best For

SS 304/316 (mandatory), aluminium, CR IS 513, GI — any component going to powder coat or cosmetic finish

High Speed — Structural MS

Oxygen Assist

Speed20–30% faster on MS > 3mm vs nitrogen
Feed MethodSheet on cutting bed, automated program
Tool CostLow — oxygen is less expensive than nitrogen
Accuracy±0.1mm · Oxide layer on cut edge

Best For

MS IS 2062 structural components going to welding — where cut edge appearance is not a coating concern

Why Fiber at Unit I

Fiber vs CO2

Speed3–5× faster on thin gauge vs CO2 at same power
Feed MethodSheet on cutting bed, automated program
Tool CostLower operating cost — no laser gas, higher wall-plug efficiency
Accuracy±0.1mm — smaller spot size than CO2 on thin sheet

Best For

All sheet metal cutting at Unit I — fiber laser is the correct technology for metals below 20mm MS across all six material grades

Manufacturing ID · Unit I Vasai Phata

Unit I Capability

3000W CNC Fiber Laser Cutting System, 1500×3000mm Working Bed, Dual Assist Gas — Nitrogen and Oxygen, Automated CAD/CAM Nesting Software. Integrated with CNC Press Brake, Power Press Floor, Welding, and 7-Tank Powder Coat Line at Unit I Vasai Phata.

Full Machinery Inventory

Industries Served

Industrial Applications

All Sector Capabilities
01

LED Lighting Manufacturers

Housing profile blanks, heat sink fin patterns, driver compartment cutouts, and mounting bracket blanks for LED flood light, street light, highbay, and panel light assemblies requiring tight dimensional tolerance and oxide-free edges for direct powder coat application.

02

Tracker OEMs

Structural bracket profiles, mounting plate blanks, slotted adjustment plates, and formed section blanks for solar tracker systems requiring consistent hole pattern accuracy and clean cut edges for bolt assembly.

03

Automotive OEMs

Precision bracket blanks, reinforcement plate profiles, body component blanks, and complex cutout geometries for Tier-1 and Tier-2 automotive supply chain components requiring ±0.1mm positional tolerance.

04

Furniture Manufacturers

Panel profiles, decorative perforation patterns, bracket blanks, and wall unit component profiles for modular office and industrial furniture systems requiring consistent geometry across medium to high volume production batches.

05

Stationery Manufacturers

Precision small-format component blanks, mechanism housing profiles, and formed strip blanks for stationery assembly operations requiring tight dimensional tolerance on small feature geometries.

06

Sheet Metal Component and Parts Clients

Custom profile cutting, prototype development, short-run component production, and net-shape blank supply for industrial enclosures, electrical panels, HVAC support components, and general engineering fabrication across the full material capability range at Unit I.

People Also Ask

Sheet Metal Laser Cutting Service | Aero Enterprises Vasai Technical FAQ

Common technical and commercial questions about sheet metal laser cutting service | aero enterprises vasai at Aero Enterprises Unit I, Vasai Phata.

What is fiber laser cutting service?

Fiber laser cutting service is a CNC sheet metal cutting process where a high-power fiber laser beam — typically 1000W to 6000W — is focused onto the metal surface through a cutting head, melting and ejecting material along the programmed profile path to produce a precision cut blank or profile. Fiber laser cutting produces ±0.1mm positional tolerance, handles MS, SS, GI, aluminium, brass, and copper, and cuts complex profiles, internal cutouts, hole patterns, and perforations that cannot be produced by mechanical shearing. At Aero Enterprises Unit I, Vasai Phata, fiber laser cutting service is available for job work clients in Vasai, Mumbai, and Palghar on a 3000W / 1500×3000mm CNC fiber laser.

What is the laser cutting rate in Vasai?

Laser cutting rate in Vasai is calculated per kilogram of material cut or per square foot of sheet processed, adjusted for material grade, thickness, geometry complexity, assist gas specification, and batch volume. MS laser cutting rate is lower than SS laser cutting rate due to the higher cutting speed on mild steel and lower nitrogen gas consumption. Complex profiles with dense internal cutout geometry require more pierce cycles and slower traverse speeds than simple rectangular blanks, increasing the per-part cutting time and cost. Contact Aero Enterprises Unit I at +91 84591 21717 with your DXF file, material grade, thickness, and quantity for a specific laser cutting rate.

What is MS laser cutting?

MS laser cutting is fiber laser cutting of mild steel (MS IS 2062) sheet. At Aero Enterprises Unit I, MS laser cutting is performed with oxygen assist for structural and welded assembly components — where the faster cutting speed of oxygen assist reduces the per-part cutting cost — and with nitrogen assist for MS components going directly to powder coat finishing, where oxide-free cut edges are required for coating adhesion. Maximum MS cutting thickness on the 3000W machine at Unit I is 20mm.

What is SS laser cutting?

SS laser cutting is fiber laser cutting of stainless steel sheet — typically SS 304 or SS 316 in sheet metal fabrication. Stainless steel laser cutting must use nitrogen assist gas exclusively. Oxygen assist on SS produces a chromium oxide layer at the cut edge that damages the stainless steel's passive corrosion resistance layer and produces a dark, rough edge unsuitable for cosmetic or coated finishes. At Aero Enterprises Unit I, nitrogen assist is mandatory for all SS 304 and SS 316 cutting. Maximum SS cutting thickness is 8mm.

What is the difference between fiber laser cutting and CO2 laser cutting?

Fiber laser cutting uses a 1.06 micron wavelength beam generated by a fiber-doped optical medium. CO2 laser cutting uses a 10.6 micron wavelength beam generated by a gas discharge tube. The key differences for sheet metal cutting: fiber laser is 3–5× faster than CO2 at equivalent power on thin gauge material below 6mm because metals absorb the 1.06 micron wavelength more efficiently. Fiber laser has lower operating cost — no laser gas, higher wall-plug efficiency. CO2 has an advantage on very thick sections above 20mm and on non-metallic materials. For all sheet metal cutting on MS, SS, GI, aluminium, brass, and copper below 20mm, fiber laser is the correct technology. The machine at Aero Enterprises Unit I is a 3000W fiber laser.

What is the minimum hole diameter for laser cutting?

The minimum internal hole diameter for fiber laser cutting is approximately equal to the material thickness. A 2mm thick sheet has a practical minimum hole diameter of 2mm. Holes smaller than material thickness are technically possible but produce poor edge quality due to heat accumulation in the small feature geometry. At Aero Enterprises Unit I, DFM file review checks all hole diameters against the material thickness specification before cutting begins. Components with holes below the minimum diameter are returned with correction notes before the sheet is loaded.

What file format is required for laser cutting job work?

DXF file format is the required input for laser cutting job work at Aero Enterprises Unit I. DXF files contain the actual cut geometry as vector data and allow accurate CAD/CAM nesting, kerf compensation calculation, and DFM review. PDF drawings cannot be used directly for laser cutting — they require manual re-drawing of the cut geometry, which introduces dimensional error and removes the ability to verify kerf compensation. Clients submitting DXF files with layer structure (cut lines, bend lines, reference geometry on separate layers) and material thickness annotation significantly reduce setup time.

What is nitrogen assist gas in laser cutting?

Nitrogen assist gas in laser cutting is delivered coaxially through the cutting nozzle at high pressure — typically 10–20 bar for thin SS and 5–15 bar for MS — during the cutting process. Nitrogen excludes atmospheric oxygen from the cutting zone, preventing oxidation at the cut edge. The result is a bright, silver, burr-free edge with no oxide layer. This is the mandatory specification for SS laser cutting and the correct specification for any component going to powder coat or painted finish where oxide-free edges are required for adhesion compliance.

What is laser cutting service near me in Vasai?

Aero Enterprises Unit I at Survey No. 109, Richard Compound, Manchipada Road, Vasai Phata, Vasai East, Palghar 401208, Maharashtra provides fiber laser cutting service in Vasai, Palghar, Virar, Nalasopara, Bhayandar, Mira Road, and the Mumbai metro region. The facility operates a 3000W CNC fiber laser on a 1500×3000mm bed with dual nitrogen and oxygen assist gas, CAD/CAM nesting, and DFM file review. Laser-cut components proceed directly to CNC bending, stamping, welding, and powder coating on the same floor. Contact: +91 84591 21717.

Can laser cutting replace stamping or punching for sheet metal components?

Fiber laser cutting is the correct process for prototypes, short runs, and geometrically complex profiles where tooling investment is not justified. Progressive die stamping is correct for high-volume production — typically above 1000 pieces per month on a repeat component — where the per-part cycle time advantage of stamping (3–5 seconds vs 15–60 seconds per part for laser) and the zero-per-piece tooling cost makes the die investment cost-effective. At Aero Enterprises Unit I, new components typically start on the fiber laser for prototyping and early production, then migrate to the progressive die press floor once monthly volume justifies tooling investment. Both processes operate on the same floor.

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Engineering Knowledge Base

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Request a Quote for Sheet Metal Laser Cutting Service | Aero Enterprises Vasai

JSW and TATA certified steel at Unit II. Full fabrication sequence — stamping, bending, welding, powder coat — at Unit I. No subcontracting. No vendor handoffs.

Mill Test Certificates (MTC) Available Upon Request