GW INSTEK PSW40-54 프로그래머블 스위칭 DC 전원공급기(0~30V/0~36A/360W)

• PSW Series PSW-30-36 ・ PSW-30-72 ・ PSW-30-108 PSW-80-13.5 ・ PSW-80-27 ・ PSW-80-40.5 PSW-160-7.2 ・ PSW-160-14.4 ・ PSW-160-21.6 PSW-250-4.5 ・ PSW-250-9 ・ PSW-250-13.5 PSW-800-1.44 ・ PSW-800-2.88 ・ PSW-800-4.32

GW INSTEK PSW40-27 프로그래머블 스위칭 DC 전원공급기(0~40V/0~27A/360W)

• PSW Series PSW-30-36 ・ PSW-30-72 ・ PSW-30-108 PSW-80-13.5 ・ PSW-80-27 ・ PSW-80-40.5 PSW-160-7.2 ・ PSW-160-14.4 ・ PSW-160-21.6 PSW-250-4.5 ・ PSW-250-9 ・ PSW-250-13.5 PSW-800-1.44 ・ PSW-800-2.88 ・ PSW-800-4.32

GW INSTEK PSW30-108 프로그래머블 스위칭 DC 전원공급기(0~30V/0~108A/1080W)

• PSW Series PSW-30-36 ・ PSW-30-72 ・ PSW-30-108 PSW-80-13.5 ・ PSW-80-27 ・ PSW-80-40.5 PSW-160-7.2 ・ PSW-160-14.4 ・ PSW-160-21.6 PSW-250-4.5 ・ PSW-250-9 ・ PSW-250-13.5 PSW-800-1.44 ・ PSW-800-2.88 ・ PSW-800-4.32

GW INSTEK PSW30-72 프로그래머블 스위칭 DC 전원공급기(0~30V/0~72A/720W)

• PSW Series PSW-30-36 ・ PSW-30-72 ・ PSW-30-108 PSW-80-13.5 ・ PSW-80-27 ・ PSW-80-40.5 PSW-160-7.2 ・ PSW-160-14.4 ・ PSW-160-21.6 PSW-250-4.5 ・ PSW-250-9 ・ PSW-250-13.5 PSW-800-1.44 ・ PSW-800-2.88 ・ PSW-800-4.32

SP DEVICES ADQ36 고성능 12-bit, 5 GSPS 디지타이저

ADQ36 offers software-selectable two- or four-channel configuration with 5 or 2.5 GSPS sampling rates respectively. The programmable DC-offset makes it ideal for sampling unipolar signals. The open onboard Xilinx Kintex Ultrascale KU115 FPGA offers plenty of available resources for custom real-time digital signal processing (DSP). ADQ36 supports peer-to-peer streaming of up to 7 Gbyte/s either to the host PC or to graphics processing units (GPUs).

GW INSTEK PSW30-36 프로그래머블 스위칭 DC 전원공급기

• PSW Series PSW-30-36 ・ PSW-30-72 ・ PSW-30-108 PSW-80-13.5 ・ PSW-80-27 ・ PSW-80-40.5 PSW-160-7.2 ・ PSW-160-14.4 ・ PSW-160-21.6 PSW-250-4.5 ・ PSW-250-9 ・ PSW-250-13.5 PSW-800-1.44 ・ PSW-800-2.88 ・ PSW-800-4.32

SP DEVICES ADQ33-PDRX 고성능 12-bit, 1 GSPS 디지타이저

ADQ33-PDRX acquires the input signal via a single connector and uses an onboard splitter to separate the signal into two paths with different gain settings. The high gain path is used to accurately capture low-amplitude portions of the input signal whereas the low gain path ensures the acquisition of high-amplitude peaks without causing saturation. The two signal paths are then combined in real-time inside the onboard field-programmable gate array (FPGA) to create a digitized output with improved performance.