Microfluidic Lab-on-a-Chip Micromachining & Rapid Biotech Prototyping
Sub-100 Micron Channel Geometry, Absorber-Free Bonded Glass/PMMA & Microfluidic.tech Network
Through our specialized division Microfluidic.tech (https://microfluidic.tech/), Lumicision partners with university engineering laboratories, hospital research institutes (MaRS, U of T, McMaster), and biotech startups across North America to fabricate microfluidic chips, organ-on-a-chip cartridges, and bespoke experimental apparatus in days.
Microfluidic.tech Subsidiary, CRAFT & University Research Network
Dedicated subsidiary Microfluidic.tech (https://microfluidic.tech/) leading microfluidic prototyping across North America. Joint research in collaboration with Lumicision Inc. accepted for presentation at the International Microfluidics Standardization Congress, with active participation in CRAFT.
Engineering Specification Matrix
Optical-grade Polycarbonate (PC), Cast Acrylic (PMMA), Cyclic Olefin Copolymer (COC), Borosilicate glass.
High-aspect ratio sub-100 micron fluidic channels with sub-micron depth profiling (±2 µm depth control).
Direct photochemical bond ablation leaving optical surface finishes (Ra < 0.2 µm) without melt burrs.
Seamless processing of Canadian university purchase orders, research grants, and wire transfers.
Key Components Manufactured for Microfluidic Chips & Biotech
From single prototype validation to recurring production lots, our calibrated laser cutting, CNC forming, and micro-welding systems deliver extreme dimensional consistency across:
Point-of-Care Diagnostic Test Chips
Low-autofluorescence microfluidic cartridges featuring 50µm capillary channels, capillary stops, and sealed reagent reservoirs.
Droplet Generation & Single-Cell Chips
T-junction and flow-focusing droplet nozzles with vertical sidewalls for consistent monodisperse emulsion generation.
Capillary Electrophoresis Arrays
Multi-branch separation networks with optical polished floors for laser-induced fluorescence (LIF) detection.
Organ-on-a-Chip Tissue Scaffolds
Dual-chamber micro-physiological systems with precision micro-ports for porous membrane clamping and live-cell perfusion.
High-Pressure Fluidic Manifold Blocks
Multi-layer laminated distribution manifolds with 1/4-28 and Barb fluidic port fittings for laboratory automation.
Custom Research Rigs & Vacuum Benches
CNC machined and laser engraved optical breadboards, sensor alignment brackets, and custom vacuum chambers for physics and biology labs.
Trusted by University Research Institutes & Research Hospitals
Fabricating experimental vacuum chambers, microfluidic flow cells, and diagnostic prototypes backed by NSERC, CIHR, NRC-IRAP, and private biotech venture capital.
Core Capabilities Available for Microfluidic Chips & Biotech
Microfluidic Laser Micromachining
Sub-micron laser channel ablation in optical polycarbonate, PMMA, and cyclic olefins down to 25µm width.
Machine Specifications →Microfluidic.tech Showcase
Visit our specialized subsidiary website Microfluidic.tech for rapid biotech prototyping.
Machine Specifications →3D Laser Engraving & Etching
Micron-depth relief engraving and graduated measurement fiducials for optical research fixtures.
Machine Specifications →Technical & Procurement Questions
Direct answers from our senior laser applications engineers and quality inspectors.
How does Microfluidic.tech deliver prototypes in days instead of weeks?
Cleanroom photolithography and soft lithography molds take 4–8 weeks to prepare. Microfluidic.tech utilizes direct laser ablation and absorber-free laser bonding, machining functional microfluidic devices directly from CAD in 24 to 48 hours without cleanroom masks or chemical etching.
How does cold laser micromachining prevent melt ridges in microfluidic channels?
Conventional thermal CO2 lasers melt plastic, leaving recast beads and rounded corners that disturb laminar fluid flow. Lumicision and Microfluidic.tech use cold ultraviolet (355nm) and ultrafast picosecond laser beams. The high photon energy cleaves molecular polymer bonds photochemically before heat can conduct into surrounding plastic, producing crisp, rectangular channel profiles with optical surface roughness (Ra < 0.2 µm).
Do you accept university institutional purchase orders and research grants?
Yes. We routinely work with Canadian universities (U of T, McMaster, Waterloo, McGill, UBC) and US research centers. We accept official University Purchase Orders, institutional P-Cards, and provide itemized quotes tailored to Tri-Council (NSERC, CIHR), CFI, and IRAP grant requirements.
What polymers and glass materials do you support for microfluidics?
We process optical-grade Polycarbonate (PC), Cast Acrylic (PMMA), Cyclic Olefin Copolymer (COC/COP), PDMS, Borosilicate & Quartz Glass, and paper-based microfluidic diagnostic substrates.
Explore Other Manufacturing Verticals
All Industries Hub →High-Conductivity Copper Busbars, Hairpins & Dissimilar Metal Laser Micro-Welding
MIL-STD-130 UID Marking, Invar 36, Titanium Grade 5 & Hermetic Avionics Enclosures
Corrosion-Resistant Laser Annealing, 2D DataMatrix Codes & Hermetic Laser Micro-Welding
1.0" Thick Carbon Steel Laser Blanking, Heavy Machine Tables & Robot Arm Brackets
Oversize 5x10 ft Laser Cut Panels, Corten Steel Cladding & Architectural Brass Accents
3D Dimensional Metal Typography, Halo-Lit Monuments & AODA Tactile Braille Systems
Multi-Material Merchandising Towers, CNC Router Acrylic Displays & Modular Flat-Pack Kitting
Artisan Laser-Cut Furniture Frames, Custom Solid Brass Hardware & PVD Finishes
TED Talks Speaker Trophies, 3D Laser Relief Engraving & Mirror-Polished Metal Awards
Ready to Prototype or Scale Microfluidic Chips & Biotech Components?
Upload your STEP, DXF, or CAD models for rapid DFM evaluation, guaranteed tolerances, and rush 24-48h turnaround from our Richmond Hill facility.