AD534 APPLICATION Search Results

Contextual Info: Internally Trimmed Precision IC Multiplier AD534 FEATURES APPLICATIONS High quality analog signal processing Differential ratio and percentage computations Algebraic and trigonometric function synthesis Wideband, high crest rms-to-dc conversion Accurate voltage controlled oscillators and filters

Contextual Info: COMPONENTS B U R R -B R O W N [ AD534/883B SERIES ] AD534TD/883B AD534SD/883B AD534TH/883B AD534SH/883B REVISION NONE May, 1988 Precision ANALOG MULTIPLIER FEATURES APPLICATIONS • • • • • PRECISION ANALOG SIGNAL PROCESSING • VIDEO SIGNAL PROCESSING

diode 10000V 10a

Contextual Info: ANALOG DEVICES FEATURES Pretrimmed to ±0.25% max 4-Quadrant Error A D 5 3 4 L A ll Inputs (X, Y and Z) Differential, High Impedance for [(X ! - X 2 )(Yi - Y 2 J/10V] + Z 2 Transfer Function Internally Trimmed Precision 1C Multiplier AD534 PIN CONFIGURATIONS

AD534

Abstract: AD543L AD534-Applications AD534KDZ AD534J AD534K AD534L AD534S AD534T ad534 application
Contextual Info: Internally Trimmed Precision IC Multiplier AD534 FEATURES APPLICATIONS High quality analog signal processing Differential ratio and percentage computations Algebraic and trigonometric function synthesis Wideband, high crest rms-to-dc conversion Accurate voltage controlled oscillators and filters

zener DIODE A112

Contextual Info: Internally Trimmed Precision IC Multiplier AD534 FEATURES APPLICATIONS High quality analog signal processing Differential ratio and percentage computations Algebraic and trigonometric function synthesis Wideband, high crest rms-to-dc conversion Accurate voltage controlled oscillators and filters

Contextual Info: Internally Trimmed Precision IC Multiplier AD534 Data Sheet FEATURES FUNCTIONAL BLOCK DIAGRAM APPLICATIONS +VS –VS TRANSFER FUNCTION X1 V-TO-1 X2 Y1 TRANSLINEAR MULTIPLIER ELEMENT VOUT = A X1 – X2 (Y1 – Y2) – (Z1 – Z2) SF V-TO-1 Y2 Z1 High quality analog signal processing

similar of AD534

Abstract: "Analog Multiplier" AD534 M1L-STD-883 AD534SH/883B HIGH accurate ANALOG MULTIPLIER ad534 application analog multiplier
Contextual Info: COMPONENTS B U R R -B R O W N IMMM AD534/883B SERIES AD534TD/883B AD534SD/883B AD534TH/883B AD534SH/883B RE V ISIO N N O N E May, 1988 Precision ANALOG MULTIPLIER FEATURES APPLICATIONS • ± 0 . 5 % MAX 4-QUADRANT ERROR • PRECISION ANALOG SIGNAL PROCESSING

Contextual Info: ANALOG DEVICES FEA TU RES Pretrimmed to ±0.25% m ax 4-Quadrant Error A D 5 3 4 L A ll Inputs (X , Y and Z ) D ifferential, High Impedance for l ( X i - X 2 )<Yj - Y 2 )/1 0 V ] + Z 2 Transfer Function Internally Trimmed Precision 1C Multiplier AD534 A D534 P IN C O N F IG U R A T IO N S

Contextual Info: C O M PO N E N T S B LJ R R - B R 0 111N HE CORP B U R R -B R O W N D • 1 7 3 1 3 fci5 0 0 1 5 0 7 4 AD534/883B SERIES ] AD534TD/883B AD534SD/883B AD534TH/883B AD534SH/883B REVISION NONE May, 1988 Precision ANALOG MULTIPLIER FEATURES APPLICATIONS • ±0.5% MAX 4-QUADRANT ERROR

Square Rooter

Abstract: AD534-Applications AD211 AD535 JM38510/13901BCA AD534 AD534J AD534K AD534L AD534S
Contextual Info: a X1 SF The wide spectrum of applications and the availability of several grades commend this multiplier as the first choice for all new designs. The AD534J ± 1% max error , AD534K (± 0.5% max) and AD534L (± 0.25% max) are specified for operation over the

AD534-Applications

Abstract: AD211 AD534J 13902B AD534T DC to 500 MHz RMS-to-DC Converter precision Sine 1khz Wave Generator AD535 AD534 AD534K
Contextual Info: a FEATURES Pretrimmed to ؎0.25% max 4-Quadrant Error AD534L All Inputs (X, Y and Z) Differential, High Impedance for [(X1 – X2) (Y 1 – Y2)/10 V] + Z2 Transfer Function Scale-Factor Adjustable to Provide up to X100 Gain Low Noise Design: 90 ␮V rms, 10 Hz–10 kHz

Contextual Info: ANALOG DEVICES FEATURES Pretrimmed to ±0.25% max 4-Quadrant Error A D 5 3 4 L A ll Inputs (X, Y and Z) Differential, High Impedance for I(X ! -X2 MY! - Y 2 )/10V] + Z 2 Transfer Function Scaie-Factor Adjustable to Provide up to X100 Gain Low Noise Design: 90jiV rms, lO H z -IO k H z

AD634

Abstract: diode LT 7229
Contextual Info: A N AL OG D E V I C E S INC S1 E II ANALO G D EVIC ES □ FEATURES Pretrimmed to ±0.25% max 4-Quadrant Error A D 534L All Inputs (X, Y and Z) Differential, High Impedance for [(X , - X 2 )(Y i - Y 2 )/1 0 V ] + Z 2 Transfer Function • O S l b B D O D Q 3 M ‘ici8 TOl « A N A

2n3773 power Amplifier circuit diagrams

Abstract: AD534 vacuum tube applications data book 759N Non-Linear Circuits Handbook Analog Devices 2N3773 audio amplifier diagram
Contextual Info: wt sin <P\ "-o" \J \J ~ sin wt Yo . wt cos q, + cos \s•~' •n wt cos wt . q,\ Sl~' . 2wt cos q, +" _\I_,_,J3.- \SI~' \J . t sin <P\ t coS q, + Sll' 2ul \j \J~ \\.'_cOS 2 W £o" :-.g) \J \J~ \11'11'\-IP.S£\ cos <P " Of 1'\-lp.S£\ "-o " 20 \J \J~ l's0° ol.ll

534-LD

Abstract: 534LH ad537 sd voltage to frequency converter 534JH
Contextual Info: ANALOG DEVICES FEATURES Pretrim m ed to ±0.25% max 4-Q uadrant Error AD534L All Inputs (X, Y and Z) D ifferential, High Impedance for [(X , - X 2) (Y, - Y2)/1 0 V] + Z2 Transfer Function Scale-Factor Adjustable to Provide up to X100 Gain Low Noise Design: 90 (jiV rms, 10 H z-10 kHz

ad534d

Abstract: Characteristics-AD734
Contextual Info: 10 MHz, 4-Quadrant Multiplier/Divider ANALOG DEVICES FEATURES High Accuracy 0.1% Typical Error High Speed 10 MHz Fuil-Power Bandwidth 450 V /|is Slew Rate 200 ns Settling to 0.1% at Full Power Low Distortion -8 0 dBc from Any Input Third-Order IMD Typically -7 5 dBc at 10 MHz

Contextual Info: ANALO G D EVIC ES 10 MHz, 4-Quadrant Multiplier/Divider AD734 FEATURES High Accuracy 0.1% Typical Error High Speed 10 MHz Full-Power Bandwidth 450 V/fis Slew Rate 200 ns Settling to 0.1% at Full Power Low Distortion - 8 0 dBc from Any Input Third-Order IMD Typically -7 5 dBc at 10 MHz

Contextual Info: SN54ACT534, SN74ACT534 OCTAL EDGE-TRIGGERED D-TYPE FLIP-FLOPS WITH 3-STATE OUTPUTS SCAS556C – NOVEMBER 1995 – REVISED NOVEMBER 2002 D SN54ACT534 . . . J OR W PACKAGE SN74ACT534 . . . DB, DW, N, NS, OR PW PACKAGE TOP VIEW 4.5-V to 5.5-V VCC Operation

ad734aq

Contextual Info: 10 MHz, 4-Quadrant Multiplier/Divider ANALOG D EVICES FEATURES High Accuracy 0.1% Typical Error High Speed 10 MHz Full-Power Bandwidth 450 V/|xs Slew Rate 200 ns Settling to 0.1% at Full Power Low Distortion -8 0 dBc from Any Input Third-Order IMD Typically - 7 5 dBc at 10 MHz

similar of AD534

Abstract: ad534 application datel DVC-8500 AD534 AD734 AD734AN AD734AQ AD734BQ transistor Z2 C144* transistor REPLACEMENT
Contextual Info: a FEATURES High Accuracy 0.1% Typical Error High Speed 10 MHz Full-Power Bandwidth 450 V/␮s Slew Rate 200 ns Settling to 0.1% at Full Power Low Distortion –80 dBc from Any Input Third-Order IMD Typically –75 dBc at 10 MHz Low Noise 94 dB SNR, 10 Hz to 20 kHz

DIODE LN4148

Abstract: AD534 AD734 AD734AN AD734AQ AD734BQ datel DVC-8500 similar of AD534
Contextual Info: a FEATURES High Accuracy 0.1% Typical Error High Speed 10 MHz Full-Power Bandwidth 450 V/␮s Slew Rate 200 ns Settling to 0.1% at Full Power Low Distortion –80 dBc from Any Input Third-Order IMD Typically –75 dBc at 10 MHz Low Noise 94 dB SNR, 10 Hz to 20 kHz

Gilbert Cell

Contextual Info: MT-079 TUTORIAL Analog Multipliers ANALOG MULTIPLIER BASICS An analog multiplier is a device having two input ports and an output port. The signal at the output is the product of the two input signals. If both input and output signals are voltages, the transfer characteristic is the product of the two voltages divided by a scaling factor, K, which has

ad534 application

Abstract: AD734 similar of AD534 R31MA1 AD734BNZ AD534 AD734AQ AD734BQ RMS-to-DC Converter DC to 500 MHz RMS-to-DC Converter
Contextual Info: 10 MHz, Four-Quadrant Multiplier/Divider AD734 FEATURES FUNCTIONAL BLOCK DIAGRAM AD734 X1 X2 X = X1 – X2 XIF HIGH ACCURACY TRANSLINEAR CORE DD U0 DENOMINATOR CONTROL U1 U2 Y1 Y2 U XZ U XY ÷ U – Z + WIF W – ∞ AO ER RU YIF Y = Y1 – Y 2 Z = Z1 – Z2

Contextual Info: 10 MHz, Four-Quadrant Multiplier/Divider AD734 FUNCTIONAL BLOCK DIAGRAM FEATURES AD734 X1 X = X1 – X2 XIF X2 HIGH ACCURACY TRANSLINEAR CORE DD DENOMINATOR CONTROL U U0 U1 XZ U XY ÷ U – Z + WIF W – ∞ AO ER RU U2 Y1 YIF Y = Y1 – Y 2 Z = Z1 – Z2