this paper presents a high speed low voltage differential signal (LVDS) interface circuit for CPU, LCD, FPGA and other fast links. In the proposed transmitter a stabile reference and a common mode feedback circuit are applied into the LVDS drivers, which enable the transmitter to tolerate the variations of process, temperature and supply voltage. The proposed receiver implements a rail-to-rail amplifier architecture which allows a 1.6Gb/s transmission. The transmitter and receiver are implemented in HJ TC 3.3v, 0.18 エ CMOS technology. Transmission operations up to 1.6Gb/s with random data patterns were demonstrated. The transmitter and receiver pad cells exhibit a power consumption of 35mW and 6mW respectively.
GHz) low-noise amplifier using the 0.18 µm CMOS process is presented. It employs a wideband filter for impedance matching. The current-reused technique is adopted to lower the power consumption. The noise contributions of the second-order and third-order Chebyshev filers for input matching are analyzed and compared in detail. The measured power gain is 12.4-14.5 dB within the bandwidth. NF ranged from 4.2 to 5.4 dB in 3.1-10.6 GHz. Good input matching is achieved over the entire bandwidth. The test chip consumes 9 mW (without output buffer for measurement) with a 1.8 V power supply and occupies 0.88 mm 2 .
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