NJM2732. Rail-to-Rail Input/Output Dual Operational Amplifier

Similar documents
Rail-to-Rail Input/Output Quad Operational Amplifier 8. C OUTPUT 9. C -INPUT 10. C +INPUT 11. GND(V ) 12. D +INPUT 13. D INPUT 14.

NJM2734. Rail-to-Rail Input/Output Quad Operational Amplifier

NJM2734SCC. Rail-to-Rail Input/Output Quad Operational Amplifier PACKAGE OUTLINE

NJM2722. Single Ultra-High speed and Wide Band Operational Amplifier

NJM2720. Single Ultra-High speed and Wide Band Operational Amplifier

NJM12904 SINGLE SUPPLY DUAL AMPLIFIER -INPUT +INPUT OUTPUT GND(V-)

NJM2737. Low Noise, Rail-to-Rail Input/Output Dual Operational Amplifier

NJM8202. Single Supply, Rail-to-Rail Output Dual Operational Amplifier

NJM2115 DUAL OPERATIONAL AMPLIFIER

NJM4585. Low Noise, Bipolar Input Dual, Audio Operational amplifier EQUIVALENT CIRCUIT PIN CONFIGURATION. FEATURES Designed for High-Quality Sound

NJM4580 DUAL OPERATIONAL AMPLIFIER

Low Offset, Low Drift Dual JFET Input Operational Amplifier. NJM2749M, NJM2749AM : DMP8 NJM2749E, NJM2749AE : SOP8 JEDEC 150mil V + OUTPUT B INPUT B

HIGH SPEED SINGLE SUPPLY OPERATIONAL AMPLIFIER

NJM2904C / NJM2904CA SINGLE-SUPPLY DUAL OPERATIONAL AMPLIFIER

NJM2748/2748A. Low Offset, Low Drift single JFET Input Operational Amplifier -1-

High Output Current, Rail-to-Rail Input/Output Dual CMOS Operational Amplifier PIN FUNCTION 1. OUTPUT A 2. INPUT A 3. +INPUT A

HIGH SPEED SINGLE SUPPLY OPERATIONAL AMPLIFIER V + B OUTPUT B -INPUT B +INPUT SOP8 SSOP8 MSOP8(VSP8) SOP14 SSOP14

NJM2718. Single-Supply High-Operating voltage Dual Operational Amplifier PACKAGE OUTLINE

NJM13404 SINGLE SUPPLY DUAL OPERATIONAL AMPLIFIER 1 8 A

NJU7046/NJU7047/NJU7048

NJM8801. High Quality Audio Dual Operational Amplifier FEATURES. EQUIVALENT CIRCUIT ( 1/2 Shown ) -1-

SINGLE SUPPLY QUAD OPERATIONAL AMPLIFIER

NJM8512/NJM8513. Precision, JFET Input Operational Amplifier

NJM5532 LOW-NOISE DUAL OPERATIONAL AMPLIFIER

MUSES8832. Rail-to-Rail Output, High Quality Audio, Dual Operational Amplifier. MUSES and this logo are trademarks of New Japan Radio Co., Ltd.

NJM12904L SINGLE SUPPLY DUAL AMPLIFIER

NJM4582 AUDIO DUAL OPERATIONAL AMPLIFIER

NJU7026/NJU7027/NJU7028

NJU7076/NJU7077/NJU7078

NJM4558C DUAL OPERATIONAL AMPLIFIER V + OUTPUT -INPUT +INPUT V -

Designated client product

Low Noise, High-Speed Dual Operational Amplifier. Vni = 3nV/ Hz typ. (at f=10khz) ft = 90MHz typ. (at V + /V - = ±2.5V)

NJU77000/NJU77001 NJU77002/NJU77004

Dual Precision Operational Amplifier

MUSES8920. High Quality Audio J-FET Input Dual Operational Amplifier - 1 -

Precision Operational Amplifier

Precision Operational Amplifier

NJM324C. Low power quad operational amplifiers

NJU High Output Current, Rail-to-Rail Input/Output Dual CMOS Operational Amplifier

MUSES8820. High Quality Audio Dual Operational Amplifier - + PACKAGE OUTLINE

ULTRA HIGH SPEED SINGLE OPERATIONAL AMPLIFIER

NJM2794. Ground Noise Isolation Amplifier PACKAGE OUTLINE

High Quality Audio, Bipolar Input, Dual Operational Amplifier

Wide-Band,High-Speed,Low-Offset,Low-Noise Rail-to-Rail Input/Output CMOS Operational Amplifier

Low power dual operational amplifier

ULTRA HIGH SPEED SINGLE OPERATIONAL AMPLIFIER

Low power quad operational amplifiers

High Quality Audio, J-FET Input, Dual Operational Amplifier

NJM5532C LOW-NOISE DUAL OPERATIONAL AMPLIFIER NJM5532CG (SOP8) FEATURES PIN CONFIGURATION. EQUIVALENT CIRCUIT (Each Amplifier) - 1 -

SINGLE-SUPPLY DUAL COMPARATOR. * NJM2903CMD7 don t have a A version. (Top View)

NJM320A/NJM321A. Low power single channel OP-Amp

NJU7116 SUPER LOW OPERATING CURRENT AND LOW OFFSET VOLTAGE TINY SINGLE CMOS COMPARATOR

High Quality Audio, J-FET Input, Dual Operational Amplifier

NJM2267M. DUAL VIDEO 6dB AMPLIFIER WITH 75Ω DRIVER PACKAGE OUTLINE

Designated client product

LOW VOLTAGE AUDIO POWER AMPLIFIER

NJM2379 PWM SWITCHING REGULATOR CONTROL IC FOR SLAVE TYPE

4in-1out Audio Selector with Isolation amplifier

NJM2355 TWO OUTPUT HIGH VOLTAGE SWITCHING REGULATOR

UNISONIC TECHNOLOGIES CO., LTD MC4556

NJM2783. Preliminary. Monaural Microphone Amplifier with ALC

LF147 - LF247 LF347 WIDE BANDWIDTH QUAD J-FET OPERATIONAL AMPLIFIERS

TL072 TL072A - TL072B

LF153 LF253 - LF353 WIDE BANDWIDTH DUAL J-FET OPERATIONAL AMPLIFIERS

UNISONIC TECHNOLOGIES CO., LTD LM833 Preliminary CMOS IC

UNISONIC TECHNOLOGIES CO., LTD

UNISONIC TECHNOLOGIES CO., LTD

AZV831/2. Description. Pin Assignments NEW PRODUCT. Features. Applications

Single-phase DC Brushless Motor Driver IC *MEET JEDEC MO-187-DA / THIN TYPE. PIN No. PIN NAME 1 OUTB 2 VDD 3 IN+ 4 IN- 5 FG 6 PWM 7 OUTA 8 GND + -

UNISONIC TECHNOLOGIES CO., LTD

UNISONIC TECHNOLOGIES CO., LTD UM609A

Dual Operational Amplifiers

SINGLE SUPPLY WIDE BAND

MUSES03. High-Quality Sound, J-FET Input, Single Operational Amplifier for Premium Audio. GENERAL DESCRIPTION

NJM Input / 1-Output Stereo Audio Selector

LM833 Dual Audio Operational Amplifier

NJM2761RB2. Audio Limiter

UNISONIC TECHNOLOGIES CO., LTD LM321

NJM2102 SYSTEM RESET IC

NJM TERMINAL POSITIVE VOLTAGE REGULATOR

SIGNAL LEVEL SENSOR SYSTEM

NJM Input / 1-Output Stereo Audio Selector

NJM2344. PWM DC/DC Converter IC with Standby Function FEATURES

OPERATIONAL AMPLIFIER & VOLTAGE REFERENCE KL103/A TECHNICAL DATA DESCRIPTION. PIN CONNECTIONS (top view) OPERATIONAL AMPLIFIER

UNISONIC TECHNOLOGIES CO., LTD

NJM2267M. DUAL VIDEO 6dB AMPLIFIER WITH 75Ω DRIVER PACKAGE OUTLINE

TEB1033 TEF1033-TEC1033

Designated client product

LM837 Low Noise Quad Operational Amplifier

UNISONIC TECHNOLOGIES CO., LTD

Dual operational amplifier

LM833 Dual Audio Operational Amplifier

Single-Supply, Rail-to-Rail, Low Power, FET Input Op Amp AD820

NJM TERMINAL POSITIVE VOLTAGE REGULATOR

Low-power, 2.5 MHz, RR IO, 36 V BiCMOS operational amplifier. Description

TS mW Stereo Headphone Amplifier. Description. Applications. Order Codes

DUAL BIPOLAR OPERATIONAL AMPLIFIERS General Description. Features. Applications

DUAL OP AMP AND VOLTAGE REFERENCE General Description. Features

TSV611, TSV611A, TSV612, TSV612A

TSV321-TSV358-TSV324. General Purpose, Input/Output Rail-to-Rail Low Power Operational Amplifiers. Description. Applications

Transcription:

Rail-to-Rail Input/Output Dual Operational Amplifier NJM7 GENERAL DESCRIPTION The NJM7 is a Rail-to-Rail Input/Output dual operational amplifier featuring low power, low noise and a low voltage operation from.8v. The Rail-to-Rail Input/Output offers a wide input/output dynamic range from ground level to supply line, which provides both ground and Hi-side sensing applications. The excellent features of low noise, low operating voltage and high phase margin make the NJM7 well-suited for various applications such as battery powered devices, portable audio devices, sensor applications and others. PACKAGE OUTLINE NJM7D (DIP8) NJM7E (EMP8) NJM7M (DMP8) NJM7V (SSOP8) FEATURES Operating Voltage.8 to 6.V Rail-to-Rail Input V ICM = to.v, (at V + =V) Rail-to-Rail Output V OH.9V/ V OL.V, (at V + =V, R L =kω) Load Drivability V OH.7V/ V OL.V, (at V + =V, R L =kω) Offset Voltage mv max. Slew Rate.V/μs typ. Low Input Voltage Noise nv/ Hz typ. (at f=khz) Adequate phase margin Φ M =7deg. typ. (at R L =kω, voltage follower) Bipolar Technology Package Outline DIP8, DMP8, SOP8 JEDEC mil, SSOP8, PCSP-CC MSOP8 (TVSP8) MEET JEDEC MO-87-DA / THIN TYPE NJM7RB (TVSP8) NJM7SCC (PCSP-CC) PIN CONFIGURATION NJM7D,E,M,V,RB NJM7SCC ( Top View ) A B 8 7 6 9 8 7 6 A - + B + - 6 7 8 9 PIN FUNCTION. A. A -. A +. GND(V ). B + 6. B 7. B 8. V + 6 7 8 9 9 8 7 6 (Note) The NC pin and the PAD should connect with a GND terminal. (Note) The NC pin is electrically not connected to the die in a package. PIN FUNCTION. A. NC. A -. A +. NC 6. NC 7. NC 8. GND(V ) 9. NC. NC (Note) The PAD is electrically not connected to the backside of the die. The PAD cannot be used as GND pin. PAD. NC. B +. B. NC. B 6. NC 7. NC 8. V + 9. NC. NC Ver.-7-7 - -

NJM7 ABSOLUTE MAXIMUM RATINGS (Ta= C) PARAMETER SYMBOL RATINGS UNIT Supply Voltage V + 7. V Differential Input Voltage Range V ID ±. V Common Mode Input Voltage Range V IC ~ 7. (Note) V Power Dissipation P D (DIP8) (DMP8) (SOP8) (SSOP8) mw (MSOP8 (TVSP8)) (PCSP CC) (Note) Operating Temperature Range T opr -~+8 C Storage Temperature Range T stg -~+ C (Note) For supply voltage less than 7V, the absolute maximum input voltage is equal to the supply voltage. (Note) On the PCB " EIA/JEDEC (76.x.x.6mm, two layers, FR-). RECOMMENDED OPERATING CONDITION (Ta= C) PARAMETER SYMBOL RATING UNIT Supply Voltage V +.8 to 6. V ELECTRICAL CHARACTERISTICS (V + =V, Ta= C) DC CHARACTERISTICS (V + =V, Ta= C) Operating Current I CC No signal applied - 8 9 μa Input Offset Voltage V IO - mv Input Bias Current I B - na Input Offset Current I IO - na Large Signal Voltage Gain A V R L=kΩ 6 8 - db Common Mode Rejection Ratio CMR CMR+:.V V CM V 7 - db CMR-: V V CM.V (Note6) Supply Voltage Rejection Ratio SVR V + /V - =±.V ~ ±.V 7 8 - db Maximum Output Voltage V OH R L=kΩ.9.9 - V V OL R L=kΩ -.. V Maximum Output Voltage V OH R L=kΩ.7.8 - V V OL R L=kΩ -.. V Input Common Mode Voltage Range V ICM CMR db - V (Note6) CMR is represented by either CMR+ or CMR- has lower value. CMR+ is measured with.v V CM. and CMR- is measured with V V CM.V. AC CHARACTERISTICS (V + =V, Ta= C) Unity Gain Bandwidth GB R L=kΩ - - MHz Phase Margin Φ M R L=kΩ - 7 - Deg Equivalent Input Noise Voltage V NI f=khz - - nv/ Hz TRANSIENT CHARACTERISTICS (V + =V, Ta= C) Slew Rate SR R L=kΩ -. - V/μs - - Ver.-7-7

NJM7 ELECTRICAL CHARACTERISTICS (V + =V, Ta= C) DC CHARACTERISTICS (V + =V, Ta= C) Operating Current I CC No signal applied - 88 μa Input Offset Voltage V IO - mv Input Bias Current I B - na Input Offset Current I IO - na Large Signal Voltage Gain A V R L=kΩ 6 8 - db Common Mode Rejection Ratio CMR CMR+:.V V CM V 8 6 - db CMR-: V V CM.V (Note7) Supply Voltage Rejection Ratio SVR V + /V - =±.V ~ ±.V 68 8 - db Maximum Output Voltage V OH R L=kΩ.9.9 - V V OL R L=kΩ -.. V Maximum Output Voltage V OH R L=kΩ.7.8 - V V OL R L=kΩ -.. V Input Common Mode Voltage Range V ICM CMR 8dB - V (Note7) CMR is represented by either CMR+ or CMR-has lower value. CMR+ is measured with.v V CM. and CMR- is measured with V V CM.V. AC CHARACTERISTICS (V + =V, Ta= C) Unity Gain Bandwidth GB R L=kΩ - - MHz Phase Margin Φ M R L=kΩ - 7 - Deg Equivalent Input Noise Voltage V NI f=khz - - nv/ Hz TRANSIENT CHARACTERISTICS (V + =V, Ta= C) Slew Rate SR R L=kΩ -. - V/μs Ver.-7-7 - -

NJM7 ELECTRICAL CHARACTERISTICS (V + =.8V, Ta= C) DC CHARACTERISTICS (V + =.8V, Ta= C) Operating Current I CC No signal applied - 6 8 μa Input Offset Voltage V IO - mv Input Bias Current I B - na Input Offset Current I IO - na Large Signal Voltage Gain A V R L=kΩ 6 8 - db Common Mode Rejection Ratio CMR CMR+:. 9V V CM.8V 8 - db CMR-: V V CM.9V (Note8) Supply Voltage Rejection Ratio SVR V + /V - =±.V ~ ±.V 6 8 - db Maximum Output Voltage V OH R L=kΩ.7.7 - V V OL R L=kΩ -.. V Maximum Output Voltage V OH R L=kΩ..6 - V V OL R L=kΩ -.. V Input Common Mode Voltage Range V ICM CMR db -.8 V (Note8) CMR is represented by either CMR+ or CMR-has lower value. CMR+ is measured with.9v V CM.8 and CMR- is measured with V V CM.9V. AC CHARACTERISTICS (V + =.8V, Ta= C) Unity Gain Bandwidth GB R L=kΩ - - MHz Phase Margin Φ M R L=kΩ - 7 - Deg Equivalent Input Noise Voltage V NI f=khz - - nv/ Hz TRANSIENT CHARACTERISTICS (V + =.8V, Ta= C) Slew Rate SR R L=kΩ -. - V/μs - - Ver.-7-7

NJM7 Operating Current [µa] Operating Current vs Operating Voltage G V =db, Ta= C 9 8 7 6 6 7 Operating Voltage [V] Operating Current [µa] Operating Current vs. Operating Voltage G V =db, Ta= C 9 8 Ta= C 7 6 Ta=8 C Ta=- C 6 7 Operating Voltage [V] 9 Operating Current G V =db Input Offset Voltage G V =db Operating Current [µa] 8 7 6 V + =V V + =V V + =.8V Input Offset Voltage [mv] - - V + =V V + =V V + =.8V - - 7 - - - 7 Input Bias Current [na] 8 6 Input Bias Current G V =db V + =V V + =V V + =.8V Input Offset Current [na] - - - Input Offset Current V + =V V + =.8V G V =db V + =V - - 7 - - - 7 Ver.-7-7 - -

NJM7 Maximum - - - - Maximum Output Voltage vs. Operating Voltage G V =OPEN, R L =kω to V, Ta= C +V OM -V OM.... Operating Voltage (V + /V - ) [V] Maximum...... -. -. -. -. -. Maximum Output Voltage vs. Load Resistance Ta=+8 C V + /V - =±.V, G V =OPEN Ta=- C Ta=+ C k k k Load Resistance [Ω] Output Maximum Voltage [V].... -. -. -. -. Maximum Output Voltage V + /V - =±.V, G V =OPEN RL=kΩ RL=kΩ RL=kΩ RL=kΩ - - 7 Ambient Temperature [ ] Maximum Output Voltage vs. Output Current V + /V - =±.V, G V =OPEN. Ta=+8 C. I SOURCE. Ta=- C. Ta=+ C -. Ta=+8 C -. I SINK -. Ta=+ C Ta=- C. Output Current [ma] Common Mode Rejection Ratio [db] 9 8 7 6 Common Mode Rejection Ratio V CM =V +,V,V - V + /V - =±.V V + /V - =±.V V + /V - =±.9V - - 7 Supply Voltage Rejection Ratio [db] 9 8 7 6 Supply Voltage Rejection Ratio V + /V - =±V to ±V V + /V - =±.V to ±.9V V + /V - =±.V to ±.V - - 7-6 - Ver.-7-7

NJM7 6 Voltage Gain/Phase vs. Frequency Gain V + /V - =±.V, G V =db, R F =kω, R G =Ω, R L =kω, Ta=+ C 8 6 Voltage Gain/Phase vs. Frequency Gain V + /V - =±.V, G V =db R F =kω, R G =Ω, R L =kω, C L =pf Ta=- C 8 - - Phase CL=pF CL=pF CL=7pF 6-6 - Phase [deg] - - Phase Ta=+8 C Ta=+ C 6-6 - Phase [deg] -6-8.E+ k.e+ k.e+ k.e+6 M.E+7 M.E+8 M -6-8.E+ k k.e+ k.e+ M.E+6 M.E+7 M.E+8 Frequency Hz] Phase Margin [deg] 9 8 7 6 Phase Margin vs. Load Capacitance V + /V - =±.V, G V =db, R F =kω R G =Ω, R L =kω, Ta=+ C Load Capacitance [pf] 8 6 - - -6-8 Voltage Gain vs. Frequency V + /V - =±.V, G V =db, C L =pf R S =Ω, R L =kω Ta=8 C - k k M M Ta= C Ta=- C 8 6 - - -6-8 Voltage Gain vs. Frequency V + /V - =±.V, G V =db R S =Ω, R L =kω, Ta=+ C CL=pF CL=pF CL=pF - k k M M CL=pF CL=7pF CL=pF 8 6 - - -6-8 Voltage Gain vs. Frequency V + /V - =±.V, G V =db, C L =pf R S =Ω, R L =kω, Ta=8 C - k k M M Ta= C Ta=- C Ver.-7-7 - 7 -

NJM7 Pulse Response Pulse Response (Rise).8 V + /V - =±.V, G V =db, f=khz, V IN =V PP R S =Ω, R L =kω, C L =pf, Ta=+ C.6.8 V + /V - =±.V, G V =db, f=khz, V IN =V PP R S =Ω, R L =kω, C L =pf, Ta=+ C.6......6. -. -.6 -...6. -. -.6 -. -. -. -. -. -.6 -.8-6 - - 6 -.6-6 8 -.8 Pulse Response (Fall) Pulse Response.8 V + /V - =±.V, G V =db, f=khz, V IN =V PP R S =Ω, R L =kω, C L =pf, Ta=+ C.6.8 V + /V - =±.V, G V =db, f=khz, V IN =V PP R S =Ω, R L =kω, C L =pf, Ta=+ C.6......6. -. -.6 -...6. -. -.6 -. -. -. -. -. -.6 8 6 8 -.8 -.6 -.8-6 - - 6 Pulse Response (Rise) Pulse Response (Fall).8 V + /V - =±.V, G V =db, f=khz, V IN =V PP R S =Ω, R L =kω, C L =pf, Ta=+ C.6.8 V + /V - =±.V, G V =db, f=khz, V IN =V PP R S =Ω, R L =kω, C L =pf, Ta=+ C.6...6. -.. -. -.6 -. -....6. -.. -. -.6 -. -. -.6 -.8 -.6 -.8-6 8 8 6 8-8 - Ver.-7-7

NJM7 Sin Wave Response Total Harmonic Distortion vs. Output Voltage - - - V + /V - =±.V, A V =db, V IN =V PP R L =kω to V, f=khz, Ta= C - - - - Total Harmonic Distortion (THD+N) [%]... V + /V - =±.V, A V =+, R L =kω to V, C L =pf, Ta= C BPF Hz : Hz to khz khz : Hz to khz khz : Hz to 8kHz Hz... Output Voltage [Vrms] khz khz Equivalent Input Noise Voltage [nv/ Hz] Equivalent Input Noise Voltage vs. Frequency V + /V - =±.V, G V =db, R S =Ω R G =Ω, R F =kω, C L =, Ta=ºC k k [CAUTION] The specifications on this databook are only given for information, without any guarantee as regards either mistakes or omissions. The application circuits in this databook are described only to show representative usages of the product and not intended for the guarantee or permission of any right including the industrial rights. Ver.-7-7 - 9 -