MCA

EP-DMCA1008

EP-DMCA1008 multi-channel analyzer is a high performance OEM multi-channel board, supporting energy-spectrum output up to 8192 channels. Integrated on-board functions include hardware-controlled programmable gain, DC offset adjustment and input attenuation. It can be powered via USB or DC 5V, with built-in reverse-connection protection. Besides energy-spectrum analysis, it also provides oscilloscope mode and shaped-pulse viewing mode to satisfy diverse signal acquisition and observation requirements.

EP-PDMCA1100P

EP-PDMCA1100P Digital Multi-Channel Pulse Amplitude Analyzer is a signal readout system for PMT scintillation detectors spectrometers. Featuring a compact chassis design, it integrates a voltage divider, preamplifier, programmable gain amplifier, digital shaping filter, temperature acquisition and the necessary power supply unit. The use of digital waveform full sampling technique results in better energy spectrum characteristics. For different application scenarios, the EP-PDMCA1100P digital multichannel opens up all parameter setting interfaces, which can be dynamically adjusted during the energy spectrum measurement.

EP-PDMCA1100A

EP-PDMCA1100A Energy Spectrum Analysis Digital Multi-Channel Pulse Amplitude Analyzer is a hybrid system with built-in digitized multi-channel pulse amplitude analysis function and energy spectrum analysis function, which is mainly used for adapting the energy spectrum readings of various scintillation detectors, such NaI(Tl), LaBr3(Ce), BGO, and so on. Waveform full sampling technology digitizes the pre-amplified signal directly, acquires the energy spectrum data through the internally integrated high voltage control, zero adjustment, gain adjustment and temperature acquisition functions, and completes the energy spectrum analysis at the same time. The built-in stabilized spectrum program maintains long term stability of the spectrum, it uses Gaussian fitting and step function methods for net peak area calculations and returns spectral analysis results in real time for nuclide identification and activity calculations.