C-band 10 GHz Highband Zero Simulator (F10)
The F10 high bandwidth ZOXP analoguer of the PVS technology combines the high linearity and small containment dimensions of low-powered voltage, with a bandwidth greater than 10GHz, and is based on the structure of the Mah-Zundel interferator (MZI). It is designed with a very reliable titanium proliferation conductor and X-cut lithium-based base. The F10 moder also integrates detectors to set and lock in the output of the PVS and the monitoring of the photopower. F10 is a zero-drive, single-drive X-tip adjuster that applies to the quality of transmission of light signals from the medium-to-long-high-speed light system.
Save to Favorites
Overview
Specifications
| Parameter | Value |
|---|---|
| Maximum RF input power (electricity) [F10; absolute maximum rating parameters; original footer Top = 25°C; RF radio frequency port; communication coupling AC] | max:25 dBm |
| Maximum input photopower (optics) [F10; absolute maximum rating parameters; original footer Top = 25°C; continuous power CW] | max:20 dBm |
| Work temperature of the shell [F10;absolute maximum rating parameters; original footer Top = 25°C] | min:-5 °C; max:+75 °C |
| Storage Temperature [F10;absolute maximum rating parameters; original footer Top = 25°C] | min:-40 °C; max:+85 °C |
| Maximum working temperature change rate [F10;absolute maximum rating parameters; original footer Top = 25°C] | max:1 °C/min |
| Operating Humidity [F10;absolute maximum rating parameters; original footer Top = 25°C] | min:5 %; max:85 % |
| mPD reverse current [F10;absolute maximum rating parameters; original footer Top = 25°C] | max:2 mA |
| MPD forward current [F10;absolute maximum rating parameters; original footer Top = 25°C] | max:10 mA |
| mPD reverse voltage [F10;absolute maximum rating parameters; original footer Top = 25°C] | max:15 V |
| Welding temperature [F10;absolute maximum rating parameters; original footer Top = 25°C] | max:250 °C |
| Welding time. [F10;absolute maximum rating parameters; original footer Top = 25°C] | max:10 s |
| Operating Wavelength Range [F10; technical parameters; 25°C, 1550 nm; optical parameters] | min:1525 nm; max:1570 nm |
| Insertion Loss [F10; technical parameters; 25°C, 1550nm; optical parameters; no connector] | max:4.5 dB |
| Insertion Loss [F10; technical parameters; 25°C, 1550nm; optical parameters; two-end belt connectors] | max:5.0 dB |
| Extinction Ratio [F10; technical parameters; 25°C, 1550nm; optical parameters; @DC] | min:20 dB; typical:24 dB |
| PRBS Eyemap Dance Ratio [F10; technical parameters; 25°C, 1550nm; optical parameters; 10.7Gb/s PRBS 2³¹−1] | min:13 dB |
| Chirp Alpha Parameter [F10; technical parameters; 25°C, 1550nm; optical parameters; original unit column font "specify"] | min:-0.1 标称值; typical:0 标称值; max:0.1 标称值 |
| Return Loss [F10; technical parameters; 25°C, 1550nm; optical parameters; no connector] | min:45 dB |
| PRBS Drived voltage [F10; technical parameters; 25°C, 1550nm; RF-interface electrical characteristics; 10.7Gb/s PRBS 2³¹−1] | typical:4.5 Vpp; max:6.0 Vpp |
| S₂₁ PV bandwidth [F10; technical parameters; 25°C, 1550nm; radio-frequency interface electrology; 3dBe, at 130 MHz] | min:11 GHz |
| Bandwidth Ripple [F10; technical parameters; 25°C, 1550 nm; radio-frequency interface electrology; 130 MHz–12.5GHz] | min:-1 dB; max:1 dB |
| S₁₁ is down. [F10; technical parameters; 25°C, 1550 nm; radio-frequency interface electrology; 130 MHz–12.5GHz] | min:10 dB; typical:11 dB |
| RF V-Cylinder voltage [F10; technical parameters; 25°C, 1550nm; radio-frequency interface electrology; @1kHz] | typical:5 V; max:6.5 V |
| Bias V-Pylon voltage [F10; technical parameters; 25°C, 1550nm; neutral interface electrology; @1kHz] | typical:5.5 V; max:6.0 V |
| Bias voltage range [F10; technical parameters; 25°C, 1550 nm; neutral interface electrology; initial working temperature] | min:-15 V; max:15 V |
| Bias interface is blocked. [F10; technical parameters; 25°C, 1550 nm; neutral interface electron; @DC] | min:1 MΩ |
| PD Response [F10; technical parameters; 25°C, 1550nm; PD parameters; bias at positive nodes] | min:20 mA/W; max:130 mA/W |
| Linearity [F10; technical parameters; 25°C, 1550nm; PD parameters] | min:-10 %; max:+10 % |
| PD Lock-Track Error [F10; technical parameters; 25°C, 1550nm; PD parameters] | min:-3 °; max:+3 ° |
| PD-smoking ratio [F10; technical parameters; 25°C, 1550nm; PD parameters] | min:6 dB |
| Radio frequency connection [F10;foot position and fibre-optic specifications] | GPO head |
| Optical pressure and PV-diode connection head [F10;foot position and fibre-optic specifications] | LEAD Footsteps |
| Input Fiber [F10;foot position and fibre-optic specifications] | Corning PM15-U25D (polarization-maintaining fiber), L1 (900μm tubing)>1m, L2 (bare fiber)>5cm |
| Output Fiber [F10;foot position and fibre-optic specifications] | Corning SMF-28™ or PM15-U25D (polarization-maintaining fiber), L1 (900μm tubing)>1m, L2 (bare fiber)>5cm |
| Footer Definition [F10; quote#1] | PD-C;detection cathode (-) |
| Footer Definition [F10; quote #2] | PD-A; detector anode (+) |
| Footer Definition [F10; quote #3] | Bias; MZ DC bias voltage |
| Footer Definition [F10; quote #4] | GND;location |
| Footer Definition [F10; quote #5] | RF; RF input (GPO header) |
Applications
Key Features
Datasheet
Supplier Information
Related Products
-
Lithium Tantalate Wafer LT
Optical Crystals
Jmwafer
Diameter [Lithium Tantalate Single-Crystal Substrate LiTaO3/LT (2~6 Inches)]: 2 inch - 50.8mm Diameter [Lithium Tantalate Single-Crystal Substrate LiTaO3/LT (2~6 Inches)]: 3 inch - 76.2mm Diameter [Lithium Tantalate Single-Crystal Substrate LiTaO3/LT (2~6 Inches)]: 4 inch - 100mm
LiTaO₃ Usually Colorless/Pale Yellow,Trigonal Distorted-Perovskite Structure,Excellent Electro-Optic,Piezoelectric/Pyroelectric Properties.
-
Lithium Niobate Wafer LN
Optical Crystals
Jmwafer
Diameter [Lithium Niobate Single-Crystal Substrate LiNbO3/LN (2~6 Inches)]: 2 inch - 50.8mm Diameter [Lithium Niobate Single-Crystal Substrate LiNbO3/LN (2~6 Inches)]: 3 inch - 76.2mm Diameter [Lithium Niobate Single-Crystal Substrate LiNbO3/LN (2~6 Inches)]: 4 inch - 100mm
LiNbO₃ Trigonal,Good Symmetry/Structural Stability,Piezoelectric,Ferroelectric,Photoelectric,Acousto-Optic/Nonlinear Properties,Curie up to1140℃,High Mechanical Quality/Chemical Stability.
-
Polycrystalline Diamond
Optical Crystals
Jmwafer
Polycrystalline Diamond - Dimensions: 10 mm × 10 mm Polycrystalline Diamond - Dimensions: 1 inch - 25.4mm Polycrystalline Diamond - Dimensions: 2 inch - 50.8mm
Diamond:Tetrahedrally Packed Carbon,Extremely Hard,Excellent Thermal Conductivity/Broad Optical Transparency,Hardest Known Natural Material,Also Synthesized at High Pressure/Temperature.
-
Single-Crystal Diamond
Optical Crystals
Jmwafer
Single-Crystal Diamond - Diameter: 5 mm × 5 mm Single-Crystal Diamond - Diameter: 10 mm × 10 mm Single-Crystal Diamond - Diameter: 20 mm × 20 mm
Diamond:Tetrahedrally Packed Carbon,Extremely Hard,Excellent Thermal Conductivity/Broad Optical Transparency,Hardest Known Natural Material,Also Synthesized at High Pressure/Temperature.
-
Fluorophlogopite
Optical Crystals
Jmwafer
Fluoromica Substrate - Dimensions: 5 mm × 5 mm Fluoromica Substrate - Dimensions: 10 mm × 10 mm Fluoromica Substrate - Dimensions: 20 mm × 20 mm
Synthetic Fluorophlogopite Mica KMg3(AlSi3O10)F2,Melts1375℃/Long-Term up to1100℃,Colorless Transparent,Strong Acid-Alkali Inert,Stable/Pure/Complete Structure/Flat Cleavage,Easily Split Thin.
Related Articles
The accelerated construction of new‑generation power systems has brought revolutionary upgrades to power‑equipment maintenance workflows.
Driven by fast‑growing demands of 3D perception, biometric authentication and machine‑vision industries, near‑infrared imaging optics have become a vital hardware component for intelligent sensing systems.
icrolight is a high-tech enterprise specializing in the R&D, manufacturing and sales of active and passive photonic devices for microwave photonics, LiDAR ranging, gas sensing, fiber optics and photomedicine.
Electro-optic deflectors (EODs) are optical devices used to steer or deflect light beams by applying an electric field to a specialized optical crystal. Unlike mechanical beam steering systems that rely on moving mirrors, electro-optic deflectors enable high-speed, non-mechanical beam control with exceptional precision and responsiveness. They are widely used in laser scanning, optical communications, microscopy, laser printing, spectroscopy, and scientific research, where rapid and accurate laser beam positioning is essential.
Loading...
Name
Phone
Organization
Use Case
Database Platform