Research Papers

• Industry: Medical/Pharmaceutical

How the GaGe Digitizer was used: The GaGe digitizer played a crucial role in capturing and
analyzing data. Signals from the Metallic Magnetic Calorimeter (MMC) detector were amplified
and filtered before being sampled by the GaGe digitizer at 2 million samples per second
(2MS/s) with 16-bit resolution. This high sampling rate and precision enabled accurate
measurement of the gamma-ray spectrum.

• Industry: Electrical Equipment Manufacturers

How the GaGe Digitizer was used: In this research, a 16-bit 200 MS/s GaGe digitizer card
was employed to capture outputs from balanced detectors in the spatial-spectral (S2) system.
This digitizer recorded the readout spectra from the S2 materials, enabling detailed post-
processing to recover and analyze the spectral data.

• Industry: Medical/Pharmaceutical

How the GaGe Digitizer was used: The paper introduces a novel approach utilizing a CdTe
semiconductor detector coupled with an energy-resolved photo-counting (ERPC) readout ASIC.
This setup enables the extraction of DOI information through waveform analysis at the cathode
of the CdTe detector. The GaGe digitizer (CSE1242) plays a crucial role in sampling and
processing the cathode waveform, providing high-resolution data for analysis.

• Industry: Medical/Pharmaceutical

How the GaGe Digitizer was used: The study utilizes Acousto-Optical (AO) imaging, which
combines ultrasound probing with light to enhance spatial resolution. Using a GaGe Digitizer,
the researchers demonstrate quantitative measurements of absorber concentration within
scattering media by employing multiple-wavelength AO imaging.

• Industry: Medical/Pharmaceutical

How the GaGe Digitizer was used: The GaGe Digitizer recorded the pulse-echo responses of
the transducer array elements during water tank testing. This was crucial for assessing the
transducer’s performance, specifically its central frequency and bandwidth.

• Industry: Medical/Pharmaceutical

How the GaGe Digitizer was used: To validate the concept, researchers conducted
backscattering analysis using a single-element high-frequency ultrasonic transducer (74 MHz
center frequency). They characterized breast biopsy tissues using linear approximation to
calculate spectral backscattering features and the integrated backscattering coefficient.

• Industry: Semiconductor

How the GaGe Digitizer was used: The GaGe digitizer played a critical role in capturing
high-quality decay curves by providing high sampling rates and 16-bit resolution. This capability
was essential for obtaining precise ring-down time measurements, which are crucial for
determining the VDF of plasma species.

• Industry: Testing Labs & Research Centers

How the GaGe Digitizer was used: The system utilizes a GageScope 8500-PCI waveform
digitizer to capture radar data. This digitizer, supporting DOS, Windows, and Windows NT,
required a complex start-up code, but the system successfully employed a dual-boot setup with
Linux and DOS to configure the digitizer efficiently.

• Industry: Semiconductor

How the GaGe Digitizer was used: To address these challenges, the paper introduces a
digital ASIC array system capable of providing digitized pre-amplifier signal waveforms. This
system enables better characterization of charge transportation and induction details, leading to
enhanced spectroscopic performance and event reconstruction.

• Industry: Semiconductor

How the GaGe Digitizer was used: The GaGe Express Razor CompuScope 16-bit 200 MS/s
digitizer was integrated into the Oregon State University TRIGA® Reactor’s NDP facility. This
high-speed digitizer enabled advanced digital signal processing, including rise-time pulse shape
analysis and coincidence measurements. It digitized output signals, allowing for detailed pulse-
by-pulse analysis to differentiate particle interactions and improve detection accuracy.