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±120V Output Precision Op Amp 1Hz to 10kHz Voltage to Frequency Converter 3.3V Baseband Video Splitter/Cable Driver (DC Coupled) Clamped AC-Input Video Cable Driver 3.3V Single Supply LT6551 RGB Plus SYNC Cable Driver (DC Coupled) 400MHz, 5V Single Supply Video Driver (AC Coupled) 700kHz, 1MΩ Single Supply Photodiode Amplifier A 133MHz Differential Amplifier with External Gain Set, Impedance Matching to a 75Ω Source and Level Shifting Acoustic Thermometry Measures Temperature To 0.1 Degree ADC Driver With Single-Ended Input to Differential Output DC Stabilized 1000uV/msec Op Amp Exponential Voltage-to-Frequency Converter for Music Synthesizers Fast, 16-Bit Current Comparator Gain 1000 Amplifier with 0.01% Accuracy, DC to 5Hz High Speed RGB to YPBPR Converter Large Area Photodiode Bootstrapping Low Noise Fully Differential Buffer/Amplifier Low Noise Low Power DC Accurate Single Supply Photodiode Amplifier Low Noise, Low Power Photodiode Amplifier Low Noise, Wideband, Gain = 100 Amplifi er with High Input Impedance Micropower 1MHz V/F Converter RGB to YPBPR Component-Video Conversion S-Video Splitter (AC Coupled) Single 2.7V Supply 4MHz 4th Order Lowpass Butterworth Filter Single Ended To Differential Transimpedance Amplifier Single Supply 10MHz Lowpass Filter Features the LT1819 Op Amp and Adjustable Bandwidth Up to 20MHz Single Supply 16-Bit ADC Driver Single-Ended to Differential Converter with Gain of +2 and Common Mode Control Small Area Photodiode in Normal TIA Configuration Stepped Gain Photodiode Amplifier Temperature-to-Frequency Converter Three Channel, Single Supply Video Line Driver (AC Coupled) Triple Video Line Driver (DC Coupled) Two Terminal Current Regulator Ultralow Noise, 2.4GHz Gain Bandwidth Large-Area Photodiode Amplifier Ultrapure 1kHz Sine Wave Generator Using All four Amplifiers of the LT1397 to Drive Large zCapacitive Loads Very Low Noise Large Area Photodiode Amplifier Wide Bandwidth Photodiode Amplifier YPBPR to RGB Converter
An LT6559 and an LT1395 can also be used to map RGB signals into YPBPR “component” video. The LT1395 performs a weighted inverting addition of all three inputs. The LT1395 output includes an amplification of the R input by –324/1.07k = –0.3. The amplifi cation of the G input is by –324/549 = –0.59. Finally, the B input is amplified by –324/2.94k = – 0.11. Therefore the LT1395 output is –0.3R, –0.59G, –0.11B = –Y. This output is further scaled and inverted by –301/150 = –2 by LT6559 section A2, thus producing 2Y. With the division by two that occurs due to the termination resistors, the desired Y signal is generated at the load. The LT6559 section A1 provides a gain of 2 for the R signal, and performs a subtraction of 2Y from the section A2 output. The output resistor divider provides a scaling factor of 0.71 and forms the 75Ω back-termination resistance. Thus the signal seen at the terminated load is the desired 0.71(R – Y) = PR. The LT6559 section A3 provides a gain of 2 for the B signal, and also performs a subtraction of 2Y from the section A2 output. The output resistor divider provides a scaling factor of 0.57 and forms the 75Ω back-termination resistance. Thus the signal seen at the terminated load is the desired 0.57(B – Y) = PB. As with the previous circuit, to develop a normal sync on the Y signal, a normal sync must be inserted on each of the R, G, and B inputs or injected directly at the Y output with controlled current pulses.
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