SMD LEDs

350-2200 nm; Core Diameter 2-20 µm; Cladding Diameter 125, 130, 250 µm; Mode Field Diameter 2.3-10.5 µm; Numerical Aperture 0.08-0.2; Polarization Crosstalk <-20, <-25, <-30 dB OZ Optics offers a wide range of optical fibers suitable for many applications. PMF/QPMF polarization maintaining (PM) fibers come in a variety of fiber sizes, operating wavelengths, and fiber types, and can be assembled into patchcords or more complex fiber optic components to suit your needs. OZ Optics categorizes fibers based on fiber type, operating wavelengths, core/cladding size, jacket diameter, and numerical aperture (NA). OZ Optics’ PMF/QPMF polarization maintaining (PM) fibers are a special variety of single mode (SM) fibers, designed to maintain the polarization properties of linearly polarized light sources, provided that the light is launched along either the slow or fast axes of the fiber. The most common method to do this is by adding two stress applying parts (SAP) on either side of the fiber core. OZ Optics’ standard PM fibers use a PANDA fiber geometry, with two circular stress rods. OZ Optics can provide fibers with other geometries, such as Bow-tie PM fibers. Like OZ Optics’ single mode fibers, the wavelength range is limited by their cutoff wavelengths and bend sensitivity at long wavelengths. OZ Optics offers special broadband RGB PM fibers for visible light applications, able to transmit light from 400 nm to 650 nm. Standard PM fibers (PMF) normally have a germanium doped core with a pure silica cladding, while for wavelengths shorter than 600 nm, OZ Optics instead uses fibers with a pure fused silica core with a fluorine doped cladding (QPMF fibers). For many high-power applications transmitting tens of Watts of optical power, standard single mode fibers are not suitable because of their small core size. On the other hand, multi mode fibers suffer from speckle patterns and large beam sizes. Large mode area (LMA) fibers offer a compromise by giving a large core size for high power handling at the expense of a lower numerical aperture, making them more sensitive to bending losses. In many cases, these fibers are not truly single mode, but are better described as low-order multi mode fibers. However, by carefully controlling how light is launched in these fibers and how much they bend, one can transmit nearly single mode light, thus generating output beams that can be focused to the small spot sizes needed for laser marking, welding and machining operations. Key Features: Huge Variety of Fibers Available Uncabled and Precabled Polarization Maintaining (PM) and Large Mode Area (LMA) Polarization Maintaining Fibers Fibers for Wavelengths from 350 nm to 2200 nm Core Diameter: 2 µm to 8.7 µm, 20 µm for Large Mode Area (LMA) Fibers Cladding Diameter: 125 µm, LMA Fibers Also 130, 250 µm Mode Field Diameter: 2.3 µm to 10.5 µm Jacket or Buffer Diameter: 0.25 mm to 0.9 mm Attenuation: <0.5 dB/km to <200 dB/km Numerical Aperture (NA): 0.11 to 0.2, 0.08 to 0.085 for Large Mode Area (LMA) Fibers Effective Numerical Aperture (1/e²): 0.082 to 0.155 Polarization Crosstalk: <-20, <-25, <-30 dB Applications: Telecommunications; Life Sciences and Biotechnology; Industrial; Sensing

Interchangeable Fixtures for Connectors, Waveguides, Bare Fibers, Other; Film Size 4 Inch Diameter; Capacity up to 8 Components; Connector Apex Offset <50 µm; Connector Radius of Curvature 5-25 mm; Connector Protrusion/Undercut: 50--120 nm KrellTech’s NOVA™ automated polishing system provides maximum flexibility for optical surface processing and supports a variety of polishing applications from connectors to waveguides, and bare fibers to custom components. NOVA™ is scalable for R&D projects, high-volume production and the rigors of harsh environments and field installation. NOVA™ workholders feature KrellTech’s patented independent suspension at each connector position for controlled pressure and uniform contact. Combined with NOVA’s Microfeed™ fixture advancement, connector “airpolishing” and epoxy removal can be performed directly in the machine. Each position is optically aligned for optimal polish geometry using KrellTech’s patented process and calibration mechanism. Connector types can also be mixed and matched in a single fixture. NOVA’s versatility provides the ability to support the polishing of many photonic components. A quick change-out of workholder fixtures provides processing capability for waveguides, optical chips, PLCs, lenses and fiber arrays. Workholders utilize a unique holding mechanism that can secure a wide range of component dimensions. The polishing angle is adjustable and custom fixtures can be fabricated for specialized applications. Bare fiber can be polished at variable angles using specialized workholders and adapters. A variety of fiber types from standard single mode (SM) to polarization maintaining (PM) and sapphire to PCF can be processed into wedge and chisel tip shapes. A quick swap-out of adapters allow the polishing of fiber diameters from 80 um to >3 mm. NOVA™ features an intuitive user interface for creating polishing programs. All parameters including cycle time, pressure and speed settings are easily inputted for all component types and desired surface geometries. A unique “manual mode” allows the adjustment of polishing parameters in real-time during NOVA™ operation. This feature streamlines process development efforts and facilitates easy and quick program creation and refinement. A new NOVA™ operation software kit is available that upgrades NOVA™ polishers with the enhanced microfeed feature. This polishing routine provides greater programming flexibility for advancing components to the polishing surface at slower and more controllable rates. While version 1 NOVA™ software was limited to 10 pre-programmed microfeed rates, with the slowest being 100 µm/s, version 2 software allows to customize rates as slow as 5 µm/min. This yields precise removal of material stock and continual component advancement. The enhanced microfeed is ideal for larger optical surfaces, delicate bare fibers, and connector air polishing. V2 also provides the ability to create "pop-up" window prompts in between each polishing step, very useful as reminder to technicians to clean fibers, inspect polishing lengths, confirm geometry, etc. before initiating the next process step. New folder management allows programs to be organized according to connector types, fiber diameters, component, etc. Bare Fiber Coning and Chisel Option The optional Orbit™ bare fiber coning and chisel system enhances NOVA™'s bare fiber processing with conical and chisel tip shaping. Unique fiber tip geometries can be formed for lensing, sensing and light guiding applications. The fiber rotation module can be mounted on standard NOVA™ variable angle and waveguide workholders. Fiber "spin" speed is user adjustable and can be set for continual rotation or the unique "360 auto-reverse" motion that prevent fiber twisting and torquing. All variables are entered and selected via a touchscreen on the Orbit™ controller. When combined with NOVA™ Auto-Angle Workholders, Orbit™ precisely positions the polishing fixture at the designed angle on a repeatable basis. Inspection Options Optional video inspection systems monitor the polishing process and inspect the polished surface directly in NOVA™.  NOVA™'s Profile Videoscope allows the real-time monitoring of component polishing. This videoscope aids with bare fiber/component positioning and confirms process completion. Teamed with measurement software, this system verifies the endface geometry of a broad range of photonics components. Teamed with measurement software, this system verifies the endface geometry of fibers, waveguides and arrays. NOVA™'s Surface Videoscope allows the in-line inspection of polished surfaces while the component is still loaded in the polisher. This minimizes material handling and streamlines photonic production compared to the traditional process of transferring components to off-line inspection stations. Polishing and specification compliance can be determined in a single workcell. Key Features: Precision Optical Polishing Wireless Tablet Control With Microfeed™ Telcordia Compliant Interchangeable Fixtures for Waveguides, Bare Fibers and More Air Polishing Machine Polishing Pressure: Programmable & Automated, Linear Displacement With Micron Positioning Control Polishing Speed and Cycling Time: Program Selectable Polishing Motion: Random Orbital Polishing Routines: Programmable (Step by Step Prompts), Microfeed™ Controlled Advancement, Manual Mode With Full Process Control Film Size: 4 Inch Diameter Connector Support: All Industry Standard Connectors, MIL-spec Termini and Ferrules, UPC & APC Geometries Connector Capacity: Up to 8 Components – Selections Can Be Mixed & Matched in Same Workholder Fixture Connector Apex Offset: <50 µm Maximum, <15 µm Typical Connector Radius of Curvature: 10 to 25 mm (2.5 mm Ferrules), 7 to 20 mm (1.25 mm Ferrules), 5 to 12 mm (APC Ferrules) Connector Protrusion/Undercut: 50 nm to -120 nm Connector Back Reflection: <-60 dB (UPC), <-65 dB (APC) Connector Insertion Loss: <0.25 dB Typical Connector Process Time: Approximately 15 s/Connector Waveguide Component Support: Waveguides, Planar Lightwave Circuits, Optical Chips, Fiber Arrays Waveguide Component Dimension Range: Width 5 to 30 mm, Thickness 0.5 to 5 mm, Length >5 mm Waveguide Angle Repeatability: ±0.3° (X/Y Axis Along Edge) Waveguide Adjustable Polish Angle Range: 0° (Flat) to 45° Fiber Type Range: Single Mode (SM), Multi Mode (MM), Polarization Maintaining (PM), Plastic, PCF, Chalcogenide, Sapphire, Specialty Fibers Fiber Diameter: 80 µm to >3 mm Fiber Angle Range: 0° (Flat) to 50° Fiber Angle Repeatability: ±0.5° Typical Equipment Footprint & Weight: 305 x 305 mm, 11.3 kg Applications: Automated Optical Polishing of Connectors, Waveguides, Bare Fibers and More; Research and Development Projects; High-volume Production; Harsh Environments and Field Installation