Custom Optical Prisms

200-1050 nm; Resolution 0.7-5 nm; Default Integration Time 20 ms; Communication Interface Bluetooth; Power Supply Port Micro USB; Dimensions 48x57.4x29 mm OZ Optics’ OSM series of handheld optical spectrometers provides customers with compact, cellphone based, easily networkable (receiving and transmitting, emailing) high-standard instruments to cover wavelengths from 200 nm to 1050 nm. There are three different wavelength ranges. 200 nm to 1050 nm, 400 nm to 800 nm, and 400 nm to 1050 nm. The required wavelength range will depend on the application. There are apps available for all three spectrometers. Key Features: Compact Design With No Moving Parts Cellphone Interface Through Bluetooth Detachable Transmittance or Reflectance Module Spectrum: UV/VIS, VIS or UV/VIS/NIR High Signal to Noise Ratio (SNR): 10000:1 (40 dB) Wavelength: 400 nm to 800 nm, 400 nm to 1050 nm, 200 nm to 1050 nm Center Spectral Resolution: ~0.7 nm, ~1 nm Edge Spectral Resolution: ~2 nm to ~4 nm; ~3 nm to ~5 nm Wavelength Accuracy: ±0.3 nm Wavelength Repeatability: ±0.1 nm Measurement Speed: 20 ms + Bluetooth Transmission Integration: 10, Default 20 ms, User Adjustable (10 up) Wavelength Increment: 0.3 nm, 0.4 nm Signal to Noise Ratio (SNR): 10,000:1 Dynamic Range: >2000:1 Magnifications: 1.13X Input Numerical Aperture (NA): 0.14 Detector: Sony ILX526A CCD 3000 Pixel Width: 7 µm Pixel Height: 200 µm Detector Length: 21 mm Slit Width: 12.5 µm (25 µm, 50 µm Available) Input Connector: SMA905 A/D Converter: 16 Bit A/D Communication Interface: Low-energy Bluetooth, Cell Phone App Compatible With Android Power Supply Port: Micro USB Dimensions: 48 x 57.4 x 29 mm Applications: Full Spectrum Analysis; Quality Control for Food Industry; Chemical Identification

800, 905 nm; Active Area Diameter 230, 500 µm; Responsivity 50, 55 A/W Typ.; Capacitance 1-3 pF Typ.; Package TO-46 Metal Can, LCC3 SMD, LCC6 SMD EPIGAP Optronic’s EOAPD series of silicon avalanche photodiodes (APD) provide an internal gain mechanism, fast time response, low dark current and high sensitivity in the near infrared region. These APDs are recommended for applications that require high bandwidth, or where internal gain is needed to overcome high pre-amp noise. In addition, they provide higher sensitivity than standard photodiodes like EPIGAP Optronic’s EOPD series and are ideal for extreme low-level light detection and short pulse detection. Silicon avalanche photodiodes (Si APDs) are the preferred optical detectors for applications with wavelengths between 400 nm and 1100 nm. Standard versions are available in active area sizes with a diameter of 230 µm and 500 µm and are offered in hermetic TO cans and LCC packages. These detectors have become the semiconductor equivalent of photomultipliers in many applications including data communication, LIDAR, instrumentation and photon counting. Key Features: Product Peak Wavelength Active Area Package Downloads EOAPD-800-0-04 800 nm Ø 230 µm TO-46 Metal Can Datasheet EOAPD-800-0-08 800 nm Ø 500 µm TO-46 Metal Can Datasheet EOAPD-800-1-01 800 nm Ø 230 µm LCC3 SMD Datasheet EOAPD-800-1-05 800 nm Ø 500 µm LCC3 SMD Datasheet EOAPD-800-1-07 800 nm Ø 500 µm LCC6 SMD Datasheet EOAPD-905-0-12 905 nm Ø 230 µm TO-46 Metal Can Datasheet EOAPD-905-0-16 905 nm Ø 500 µm TO-46 Metal Can Datasheet EOAPD-905-1-09 905 nm Ø 230 µm LCC3 SMD Datasheet EOAPD-905-1-13 905 nm Ø 500 µm LCC3 SMD Datasheet EOAPD-905-1-15 905 nm Ø 500 µm LCC6 SMD Datasheet   Applications: Data Communication; LIDAR; Instrumentation; Photon Counting; Optical Range Finders; High-speed Optical Communications; Medical Equipment; Barcode Readers

Input Voltage 187-460 VAC 3-Phase; Max. Output Voltage 200-500 kVDC; Max. Power 4,000, 8,000 W; Efficiency 80%; Voltage Regulation <0.005%; Current Regulation <0.1% XP Glassman’s LH Open Stack Series of high voltage AC/DC power supplies are sophisticated 4 or 8 kW open stack power supplies with extremely low ripple and noise. They are air insulated fast response units with tight regulation. A range of models is available with output voltage ranges from 0 to 200 kVDC through 0 to 500 kVDC. One master supply and up to 4 slave supplies can be run in parallel, providing a maximum of 12 to 20 kW depending on the maximum DC voltage. LH Open Stack series power supplies consist of a rack-style driver chassis, a high voltage stack assembly and a remote-control unit. The dimensions of the stack vary with the output voltage rating and are given in the specifications in the downloadable datasheet. The driver chassis is provided in a cabinet with 231.1 mm height x 636.5 mm depth. The remote-control unit size is 132.5 mm height x 482.6 mm width x 168.3 mm depth. The LH Open Stack Series features “air” as the primary dielectric medium. No oil or encapsulation is used which would impede serviceability or increase weight. Internal circuitry constantly senses and integrates arcs that occur over a given time. In the event a system or load arcing problem develops and exceeds factory-set parameters, the power supply will cycle off in an attempt to clear the fault and then automatically restart after a preset “off dwell time”. The LH Open Stack Series’ high voltage output is inhibited for a short period after each load arc to help extinguish the arc. Typically, ripple is less than 0.1% peak-to-peak of rated voltage at full load. Off-the-line pulse-width modulation (PWM) provides high efficiency and a reduced parts count for improved reliability. The LH Open Stack Series’ standard operation mode is constant voltage/current. Automatic crossover from constant-voltage to constant-current regulation provides protection against overloads, arcs and short circuits. A current-trip feature may be substituted for constant-current operation by a remote-control chassis rear panel selector switch. Standard accessories for the LH Open Stack Series include 7.6 m of detachable interconnect cables, null modem cable and USB cable. The LH Open Stack Series supplies, when configured with the 400 VAC input option, are fully compliant with the following European directives: EN61010/ IEC61010, Safety EN61000-6-4, Conducted and Radiated Emissions EN61000-6-2:2005, Conducted and Radiated Immunity 2011/65/EU, Restriction of the Use of Hazardous Substances (RoHS) Key Features: Open Stack High Voltage Air Insulated Maximum Output Power: 4, 8 kW – Parallelable to 20 kW Maximum Output Voltage: 200 to 500 kVDC Maximum Output Current: 5 to 40 mA Low Ripple: 100 to 160 Vpp High Frequency Ripple, 20 Vpp Line Frequency Ripple Tight Regulation Voltage Regulation: <0.005% for Specified Line and Load Variations Current Regulation: <0.1% From Short Circuit to Rated Voltage at Any Load Condition Constant Voltage/Constant Current Operation Arc Quench & Arc Count Front Panel, Remote, RS232, USB & Optional Ethernet Control Input Voltage: 180 to 220 or 340 to 460 VAC RMS, 48 to 63 Hz, Three Phase Efficiency: 80% Typical at Full Load Output Voltage Accuracy: 0.5% of Setting + 0.2% of Rated Output Voltage Repeatability: <0.1% of Setting Maximum Stored Energy: 109 to 528 J Voltage Monitor: 0 to +10 VDC Signal for 0 to Rated Voltage Current Monitor: 0 to +10 VDC Signal for 0 to Rated Current Stability: 0.01%/h After 0.5 h Warm-up, 0.05% per 8 h Protection: Against All Overload Conditions, Including Arcs and Short Circuits Signals Provided on the Remote User Interface Terminal Strip: Voltage & Current Program/Monitor, HV Enable/Status, External Interlock, Fault Status, +10 V Reference, I/V Mode Status Options: Zero Start Interlock, Slow Start Ramp, 0 to 5 V Voltage & Current Program/Monitor, Virtual RS-232 COM Port Over Ethernet Network 3 Year Warranty Approvals: IEC61010-1:2010; EN61000-6-4:2007, Class A EN61000-6-2:2005 Operating Temperature: -20 to +40 °C Dimensions: See Downloadable Datasheet Applications: High Voltage, High Power Applications; Photonics; Healthcare (Analytical, Diagnostics, Detectors); Industrial; Semiconductor Manufacturing; Research; Other

Fused Silica, CaF2; 415-1700 nm, Customer Specified; Finesse 56-~100, Customer Specified; FSR 15-60 GHz, 0.5-2/cm, Customer Specified; Thickness 1.68-6.74 mm, Customer Specified; AR and HR Coating; 22.0x24.0, Customer Specified; Clear Aperture 18x18 mm, Customer Specified LightMachinery’s OP-6721/OP-7553 series of VIPA (Virtually Imaged Phase Array) etalons are manufactured from Fused Silica (OP-6721) or Calcium Fluoride (OP-7553), allowing operation further into the infrared, IR) using the company’s patented fluid jet polishing (FJP) technology – allowing the adjustment of the etalon’s shape and flatness to within a few nanometers. Catalog series OP-6721 VIPA etalons are available with dimensions of 22.0 x 24.0 mm and 18 x 18 mm aperture. Free spectral range (FSR) values are 15 GHz (0.5/cm), 30 GHz (1/cm) and 60 GHz (2/cm), each available with nine different finesse values from 56 to 100, resulting in nine different wavelength ranges from 415 to 1700 nm. Wavelength range, thickness, finesse, FSR and other design details of OP-6721 and OP-7553 series VIPAs are also available based on customer requirements. For the OP-6271 series, a dedicated protective aluminium mount is available that enables mounting the VIPA in a standard 50.8 mm (2”) diameter optic holder – its price includes cementing of the VIPA to the mount at the supplier. A VIPA (Virtually Imaged Phase Array) is a special type of Fabry-Perot etalon with a built-in transmission window so the beam can sneak in past the first reflector and effectively commence the multiple reflections and constructive and destructive interference from inside the etalon. By changing the first reflector to a full 100% high reflector, the beam can only exit in transmission, this effectively creates an etalon with ~100% transmission. VIPAs are made with three distinct coatings, carefully selected to match the wavelength range of interest: One surface of a VIPA has an anti-reflection coated section adjacent to a high reflector. The opposite surface is coated with a partially transmitting mirror. Light is introduced into the VIPA at a small angle on the AR coated area. The VIPA is tilted so that the portion reflected from the partial reflector is fully incident on the high reflectance zone of the input surface. A single input beam is converted to a series of parallel output beams of gradually decreasing intensity. These beams will constructively interfere at an angle that depends on the wavelength. Placing a lens between the VIPA and an array detector (CCD or similar) allows recording of a spectrum of the input light. Each subsequent beam has a precise increase in phase and fixed lateral displacement, hence “phase array”. LightMachinery is the world leader in high-accuracy VIPA fabrication, and VIPAs are at the core of many of LightMachinery’s spectrometers. Several parameters define the performance of a VIPA. The first is its optical thickness (OPD) – the free spectral range (FSR) is approximately c/OPD. Analogous to a regular etalon, the angular dispersion of the VIPA output will repeat every time the input frequency (or wavelength) increases by 1 FSR. The second important parameter is the reflectance of the output mirror. In principle, a higher reflectance mirror will increase the resolving power of the VIPA. Light Machinery has optimized the partial reflectivity for each wavelength range to maximize finesse; finesse greater than 100 has been achieved for VIS/NIR applications. In other words, it will be possible to distinguish wavelengths separated by 1/100th of the FSR. The third important parameter is the internal angle of the light traveling through the VIPA. Smaller angles increase the angular dispersion, and a narrower transition between the antireflection coating and the high reflector enables a smaller angle. LightMachinery’s VIPAs have a transition width of only 2 to 3 µm, which enables operation of the VIPA at a very small angle. This reduction in angle improves resolution and contrast compared to what was previously possible. Sometimes you need something special – if you are looking for a customized VIPA etalon that exactly meets your specific requirements (e.g. different substrate materials like Silicon, etc.), please get in touch with the AMS Technologies etalon experts. Our supplier LightMachinery is extremely experienced with specifying, designing and manufacturing custom etalons using the company’s patented fluid jet polishing (FJP) technology. We are looking forward to discussing your customized etalon solution! Fluid jet polishing (FJP) systems use a fine stream of slurry to accurately remove nanometers of material from an optical surface. Many years of refining this computer controlled polishing technology have enabled LightMachinery to use FJP for the adjustment of the shape and flatness of optical components such as etalon mirrors to within a few nanometers as well as the production of very thin components such as wafers and thin etalons that are impossible to accurately polish using conventional technology. Key Features: VIPA (Virtually Imaged Phase Array) Etalons Etalon Material: Fused Silica (OP-6721) or Calcium Fluoride (OP-7553) Anti-reflective (AR) and High-reflection (HR) Coating Wavelength Range: 415 to 1700 nm or Customer Specified Finesse: 56 to ~100 or Customer Specified Free Spectral Range, FSR: 15, 30, 60 GHz (2/cm, 1/cm, 0.5/cm) or Customer Specified Dimensions: 22.0 x 24.0 mm Including a 3 mm Input Window or Customer Specified Thickness: 1.68 to 8.74 mm or Customer Specified Clear Aperture: 18 x 18 mm or 90% of Outside Dimensions Matched Surface Figure: λ/200 rms Surface Quality: 10/5 or Better Substrate Wedge: <0.05 arcsec Applications: Spectroscopy; Interferometers; Wavelength Measurement; Lasers; Fine-structural Investigation of Spectral Lines