MAX2047ETJ Maxim Integrated, MAX2047ETJ Datasheet
MAX2047ETJ
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MAX2047ETJ Summary of contents
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... PART TEMP RANGE MAX2045ETJ-T -40°C to +85°C MAX2046ETJ-T -40°C to +85°C MAX2047ETJ-T -40°C to +85°C *EP = Exposed paddle. ________________________________________________________________ Maxim Integrated Products For pricing, delivery, and ordering information, please contact Maxim/Dallas Direct! at 1-888-629-4642, or visit Maxim’s website at www.maxim-ic.com. High-Gain Vector Multipliers ...
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High-Gain Vector Multipliers ABSOLUTE MAXIMUM RATINGS V to GND .............................................................-0.3V to +6V CC VI1, V12, VQ1, VQ2, RFIN1, RFIN2, RFOUT1, RFOUT2 ....................................-0. RFOUT1, RFOUT2 Sink Current..........................................35mA REFOUT Source Current.......................................................4mA II1, II2, IQ1, IQ2 ........................................................-0.3V to +1V II1, II2, ...
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MAX2045 ELECTRICAL CHARACTERISTICS (Typical Operating Circuit as shown in Figure 1; V rent range = 0 to 4mA (if using a current-mode DAC), and differential input voltage range = 0 to 0.707V (if using a voltage-mode DAC). If using a ...
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High-Gain Vector Multipliers MAX2045 ELECTRICAL CHARACTERISTICS (continued) (Typical Operating Circuit as shown in Figure 1; V rent range = 0 to 4mA (if using a current-mode DAC), and differential input voltage range = 0 to 0.707V (if using a voltage-mode ...
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MAX2046 ELECTRICAL CHARACTERISTICS (continued) (Typical Operating Circuit as shown in Figure 1; V rent range = 0 to 4mA (if using a current-mode DAC), and differential input voltage range = 0 to 0.707V (if using a voltage-mode DAC). If using ...
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High-Gain Vector Multipliers MAX2047 ELECTRICAL CHARACTERISTICS (Typical Operating Circuit as shown in Figure 1; V rent range = 0 to 4mA (if using a current-mode DAC), and differential input voltage range = 0 to 0.707V (if using a voltage-mode DAC). ...
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MAX2047 ELECTRICAL CHARACTERISTICS (continued) (Typical Operating Circuit as shown in Figure 1; V rent range = 0 to 4mA (if using a current-mode DAC), and differential input voltage range = 0 to 0.707V (if using a voltage-mode DAC). If using ...
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High-Gain Vector Multipliers ( 2140MHz, V_1 = VI1 and VQ1, V_2 = VI2 and VQ2, I_1 = II1 and IQ1, I_2 = II2 and IQ2, VI1 = VQ1 = 3.2V, VI2 = CC IN VQ2 = ...
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Typical Operating Characteristics (MAX2045) (continued 5V 2140MHz, V_1 = VI1 and VQ1, V_2 = VI2 and VQ2, I_1 = II1 and IQ1, I_2 = II2 and IQ2, VI1 = VQ1 = 3.2V, VI2 = CC IN ...
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High-Gain Vector Multipliers Typical Operating Characteristics (MAX2045) (continued 5V 2140MHz, V_1 = VI1 and VQ1, V_2 = VI2 and VQ2, I_1 = II1 and IQ1, I_2 = II2 and IQ2, VI1 = VQ1 = 3.2V, VI2 ...
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V_1 = VI1 and VQ1, V_2 = VI2 and VQ2, I_1 = II1 and IQ1, I_2 = II2 and IQ2, VI1 = VQ1 = 3.2V, VI2 = CC IN VQ2 = REFOUT ...
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High-Gain Vector Multipliers Typical Operating Characteristics (MAX2046) (continued 5V 1900MHz, V_1 = VI1 and VQ1, V_2 = VI2 and VQ2, I_1 = II1 and IQ1, I_2 = II2 and IQ2, VI1 = VQ1 = 3.2V, VI2 ...
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Typical Operating Characteristics (MAX2046) (continued 5V 1900MHz, V_1 = VI1 and VQ1, V_2 = VI2 and VQ2, I_1 = II1 and IQ1, I_2 = II2 and IQ2, VI1 = VQ1 = 3.2V, VI2 = CC IN ...
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High-Gain Vector Multipliers ( 915MHz, V_1 = VI1 and VQ1, V_2 = VI2 and VQ2, I_1 = II1 and IQ1, I_2 = II2 and IQ2, VI1 = VQ1 = 3.2V, VI2 = VQ2 ...
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Typical Operating Characteristics (MAX2047) (continued 5V 915MHz, V_1 = VI1 and VQ1, V_2 = VI2 and VQ2, I_1 = II1 and IQ1, I_2 = II2 and IQ2, VI1 = VQ1 = 3.2V, VI2 = VQ2 CC ...
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High-Gain Vector Multipliers Typical Operating Characteristics (MAX2047) (continued 5V 915MHz, V_1 = VI1 and VQ1, V_2 = VI2 and VQ2, I_1 = II1 and IQ1, I_2 = II2 and IQ2, VI1 = VQ1 = 3.2V, VI2 ...
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PIN NAME 1 VI1 Noninverting in-phase voltage-control input. Requires common-mode input voltage (2.5V typ). 2 VI2 Inverting in-phase voltage-control input. Requires common-mode input voltage (2.5V typ). 3 VQ1 Noninverting quadrature voltage-control input. Requires common-mode input voltage (2.5V typ). 4 VQ2 ...
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High-Gain Vector Multipliers C1 RF INPUT C4 VOLTAGE- MODE DAC CURRENT- MODE DAC C9 C10 C11 RF OUTPUT Figure 1. Typical Operating Circuit Using Differential Current- and Voltage-Mode DACs 18 ______________________________________________________________________________________ * ...
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C1 RF INPUT VOLTAGE- MODE DAC C4 C6 C12 RF OUTPUT Figure 2. Typical Operating Circuit Using Single-Ended Voltage Mode DACs ______________________________________________________________________________________ High-Gain Vector Multipliers * VI1 1 VI2 CONTROL 90° 2 AMPLIFIER I PHASE SHIFTER ...
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High-Gain Vector Multipliers On-Chip Reference Voltage An on-chip, 2.5V reference voltage is provided for single-ended control mode. Connect REFOUT to VI2 and VQ2 to provide a stable reference voltage. The equivalent output resistance of the REFOUT pin is approximately 80Ω. ...
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... Maxim cannot assume responsibility for use of any circuitry other than circuitry entirely embodied in a Maxim product. No circuit patent licenses are implied. Maxim reserves the right to change the circuitry and specifications without notice at any time. Maxim Integrated Products, 120 San Gabriel Drive, Sunnyvale, CA 94086 408-737-7600 ____________________ 21 © 2003 Maxim Integrated Products High-Gain Vector Multipliers 0 ...