-----The KY-PM SeriesFeaturesl Multiple operating wavelengthsl Low half-wave voltagel Low insertion lossl High damage optical powerApplicationsl Fiber optic sensingl Optical fiber communication, laser coherent synthesisl Phase Delay (Shifter)l Quantum communicationDescriptionThe KY-PM series electro-optic phase modulator uses the electro-optical effect of lithium niobate crystal to realize the phase modulation of optical signals, and uses titanium diffusion or proton exchange process to fabricate optical waveguides, which can realize phase modulation of double polarization or single polarization. It has the characteristics of low insertion loss, high modulation bandwidth, low half-wave voltage, and high damage optical power, and is mainl...
FeatureslC-bandlSideband suppression ratio:30dBlCarrier suppression ratio: 26dBlFrequency: 1-18GHzlUp and down sidebandslDC 12V power supplylPM fiber input/outputlRS232ApplicationslBrillouin optical fiber sensing systemlMicrowave photonicslHigh-precision gas detection Description The KY-CS-SSB-15-0118-FA is an optical CS-SSB modulation module developed by our company. The modulation module integrates Mach-Zehnder dual parallel modulators, bias point control circuits and broadband bridge, can achieve stable and reliable single sideband modulation, and can switch between left and right sideband control as needed. It can also be equipped with corresponding microwave sources to achieve wavelength scanning in multiple frequency ranges, and the wavelength scann...
------The KY-PS SeriesFeatureslC-bandlLow half-wave voltagelLow insertion loss lCompact designApplicationslQuantum communicationlHigh-speed test equipmentlPolarization ScramblerlOptical fiber sensing systemDescriptionThe KY-PS series electro-optic polarization modulators are capable of generating linearly polarized light. Fabricated using the titanium diffusion process, these devices support simultaneous transmission of both TE and TM polarization modes. The input and output fiber slow axes are coupled at a 45°angle relative to the waveguide's optical axis. When linearly polarized light is launched into the waveguide along the input fiber's slow axis, it splits into TE and TM polarization modes. By varying the voltage applied to the waveguide, ...