MC35181

MC35181 MOTOROLA | Alldatasheet

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MOTOROLA MC34181,2,4 = SEMICONDUCTOR oes MC35181,2,4 TECHNICAL DATA MC33181,2,4 | 2) LOW POWER, HIGH SLEW RATE, WIDE BANDWIDTH, LOW POWER JFET INPUT OPERATIONAL AMPLIFIERS JFET INPUT OPERATIONAL AMPLIFIERS Quality bipolar fabrication with innovative design concepts are employed for the MC33181/2/4, MC34181/2/4, MC35181/2/4 series ‘SILICON MONOUTHIC of monolithic operational amplifiers. This JFET input series of INTEGRATED CIRCUITS: operational amplifiers operate at 210 »A per amplifier and offer 4.0 MHz of gain bandwidth product and 10 V/us slew rate. Pre- cision matching and an innovative trim technique of the single and dual versions provide low input offset voltages. With a JFET input stage, this series exhibits high input resistance, low input a al offset voltage and high gain. The all NPN output stage, charac- terized by no deadband crossover distortion and large output q a. voltage swing, provides high capacitance drive capability, excel- P SUFFIX U SUFFIX lent phase and gain margins, low open-loop high frequency out- PLASTIC PACKAGE CERAMIC PACKAGE put impedance and symmetrical source/sink ac frequency CASE 626 CASE 693 response. D SUFFIX The MC33181/2/4, MC34181/2/4, MC35181/2/4 series of devices PLASTIC PACKAGE are specified over the commercial, industrialivehicular or military 8 CASE 751 temperature ranges. The complete series of single, dual and quad 1 (S08) operational amplifiers are available in the plastic and ceramic DIP as well as the SOIC surface mount packages. Offset Null INC © Low Supply Current: 210 4A (Per Amplifier) inoue || prec © Wide Supply Operating Range: +1.5 Vto =18V GF {2} Output ‘© Wide Bandwidth: 4.0 MHz veeG| eo ofteer Nun ‘© High Slew Rate: 10 V/us (Single, Top View) © Low Input Offset Voltage: 2.0 mV output 164 la vec ‘* Large Output Voltage Swing: -14V to +14 V (with +15V Na} ——troutput 2 Supplies) Inputs 1 ae B © Large Capacitance Drive Capability: 0 to 500 pF vee? <i} ‘mpas 2 '® Low Total Harmonic Distortion: 0.04% — {Dual Top View) ‘© Excelient Phase Margin: 67° ® Excellent Gain Margin: 6.7 dB © Output Short Circuit Protection ORDERING INFORMATION 14 si ! , meV TUTee Op Amp Tost Temperature 1 Lsurx Function Device Range _ | _Package P SUFFIX CERAMIC PACKAGE | Single mcaaietP ow +700 | ‘Plastic DIP PLASTIC PACKAGE CASE 632 Mc34i8i0 80.8 CASE 646 Mc33181P . Plastic DIP D SUFFIX MCste1D @wrec | Nos s PS PLASTIC PACKAGE MC35181U 5S to + 125°C Ceramic DIP CASE 751A Dual Mc34182P Plastic DIP ’ (Sona) Oto +70°C vastic | reser —_ SO-8 Ourput 1 [7 7 #3] Output 4 Mc33182P : Plastic O1P fy Mc331820 soto sa5C S08 vous [EP ECE apa McaateaP a Plastic DIP 5 ss Mca4ie4D ge s7e S048 twos ofS FYB puta MC33184P “an to 288" Plastic DIP } MC33184D 4010 + BC S$0-14 Output 2} fo) Output 3 (ovad, Top View! OO MOTOROLA LINEAR/INTERF ACE DEVICES 2-333

MC34181,2,4, MC35181,2,4, MC33181,2,4 : MAXIMUM RATINGS [ating TS] Value Unit ‘Supply Voltage (from Vcc to Vee} +36 input Differential Voltage Range Note 1 [input Voltage Range || Note | Vots | [Owput shor rest Owaion Neto | tg | eetite Seco Operating Junetion Temperature wy ca Ceram Posage +180 Plastic Package +180 ‘Storage Temperature Range Tstg c Goreme Peacge 65 to +160 Plastic Package 60 to +150 NOTES {ether or both input volages must not exceed he magnitude of Voc or VEE

1 Foner duspason mast be concoered to ensure martnum jnesor temperture Tino exceeded (ee Figure 1)

EQUIVALENT CIRCUIT SCHEMATIC (EACH AMPLIFIER) Taternal ~~~ Network _}—~ 8 vs * vl [oe }f ° {| aay Ri R2 * dj f * Bs o| | HY 8 Null Offsets MC3X181 (Single) Only VY gy ove. 25k MC3X181 input Offset Vottage Null rout MOTOROLA LINEAR/INTERFACE DEVICES 2-334

MC34181,2,4, MC35181,2,4, MC33181,2,4 , DC ELECTRICAL CHARACTERISTICS (Vcc = +15V, VeE = ~15¥, Ta ~ 25°C unless otherwise noted) [____tharacterete | Symbot [min | Typ | Max | Unit | Input Offset Voltage [Rg = 500, Vo = OV) mV 2 Single Ta = +25 os | 20 Ta = OC to +70 (MC34181) — | 30 Ta = 40°C to +85°C (MC33181) — | 35 Ta = ~B5°C to + 125°C (MC35181) — | 4s Dual Ta = +25'¢ ro | 30 Ta = O°C to +70°C (MC34182) = | 40 Ta = ~40°C to +85°C (MC33182) — | 4s Ta = ~S5%C to + 125°C (MC35182) — | ss Quad Ta = +250 a0 | 10 Ta = OC to + 70°C (MC34184) —~|n Ta = ~40°C to +85°C (MC33184) — | us Ta = —55'C to + 125°C (MC35184) =| zs | Average Temperature Coefficient of Vio Rs = S0MVo=oMV [avgar| — | wo | — | wre] Input Offset Current (Vom = OV, Vo ~ OV) Ta= +250 0.05 Ta = OC to +70" 10 Ta = 40°C to 485°C 20 Ta = ~85°C to +125 3 Input Bias Current (Vom = 0V, Vo = 0V) Ta = +25 0.003 | 01 Ta = OC to +70°C — | 20 Ta = 40°C 10 +85°C = | 40 Ta = —55C 10 + 125°C = | 3 Input Common Mode Votage Range Vien Wee 2 40M e Wop = 20 Large Signal Voltage Gain (RL = 10k9, Vo = +10 V) Avot Vimy Ta = +25°C 25 TA = Tiow t© Thigh 15 Output Voltage Swing {Vip = 10V, Ru - 10M) Vor | 135 | +14 Common Mode Rejection (Rg = 50 9. Vow = Vicr. Vo = 0) { cwr [70 | es | — [as | Powor Supply Rejection (Rg = 50.0, Vom = OV, Vo = OV) [ rsa [70 | ee |= | oe | Output Short Circuit Current (Vip ~ 7.0 V, Output to Ground) sc Source Sink Power Supply Current (No Load, Vo = OV) aA Single Ta = 425°C 210 | 250 TA = Tow 0 Thigh — | 250 Dual Ta = 425°C 420 | 500 TA = Tiowt© Thigh — | 500 Quad Ta = 425°C 840 | 1000 TA = Tlow t© Thigh = 1000 SSSSSSSSSSSSSSsSsSssSsSsssssssssssSSssse MOTOROLA LINEAR/INTERFACE DEVICES 2-335

MC34181,2,4, MC35181,2,4, MC33181,2,4 . AC ELECTRICAL CHARACTERISTICS (Vcc - +15 V, Vee = —15V, Ta = +25°C unless otherwise noted) [characteristic | Symbot | min | typ | Max [Unit]

2 Slew Rate Win = —10Vto + 10V, RL ~ 1OKM, CL = 100 ph) Vias

‘ay 0 Ay = "10 Setling Time (Ay = 10, R= TKR, Vo = OVt@ +10 Step) = “To Within 0.10% To Within 0.01% Gain Bandwidth Product (f = 100 kHe [caw [30 | ao | = | mm | Power Bandwidth (Ay = +10,R, = 10K = 20Vpp TD = Sm) | ew | — | 200 | — | wn | Phase Margin {10 V = Vo < +10V) RL = 10 ka 67 AL = 10KN, CL = 100 pF 3 Gain Margin (10 V<Vo = +10¥) R= 10 ko 67 AL = 10K0. CL = 100 pF 34 Equivalent Input Noise Voltage nvivA Ren toni 10K _ Equivalent input Noise Current pA He toto bie | Differential input Capacitance | GT To T= Tr | [ Differential input Resistance | | | oe | | Total Harmonie Distortion 7 % AV = 10.AL = 1OKD,2 Vp < Vo <20Vpp.t = 10 KH Channel Separation Ry — 10KA, -10V=Vo< vt0VoHe=f<toK| — | — | wo | >| a] ‘Open-Loop Output impedance ol | — a it~ 10MHe) 1 FIGURE 1 — MAXIMUM POWER DISSIPATION versus FIGURE 2 — INPUT COMMON-MODE VOLTAGE RANGE TEMPERATURE FOR PACKAGE VARIATIONS versus TEMPERATURE 200 o = LT | nal Yoo = Hove sv | Fa Ne ee 8 solver “30Ve —6V_| Voc towm ved) z nN fbeintisnc ic nal 5 iio = £9mv = 5 0 mS 85 Mbt Hh PX ENI EEL KES OSS

2 AN SAN i

= wn Men OSS 82... PLPEVASSROT 5 sol | soars SSS 2 ad eU TTT SSP EPA TT f PASSA 4 a CCT a a "ay AMBENT TEMPERATURE Ta AMBENT TEMPERATURE) MOTOROLA LINEAR/INTERFACE DEVICES 2-336

MC34181,2,4, MC35181,2,4, MC33181,2,4 , FIGURE 3 — INPUT BIAS CURRENT FIGURE 4 — INPUT BIAS CURRENT versus INPUT seater Preto 1009) » —— 2 eeLlltl] tet S 10] =z 4 | | | [A re 2‘ ZA) PCIE ey ad Te) SE w | ° to met | | | | Eee FIGURE 5 — OUTPUT VOLTAGE SWING FIGURE 6 — OUTPUT SATURATION VOLTAGE versus Semetedatrs saan (pe pp 2 bo =aeee : gaf he 05 jf | [NX] | z || va SE a a ca i a a | ioe Sppeerecre 3 4 8 stot —b iaene 5 i OO Oe ‘Vcc, \\Vegl, SUPPLY VOLTAGE {VOLTS} | LOAD CURRENT (mA) FIGURE 7 TOAD RESIS ANTON VOLTAGE versus FIGURE 8 — noe Seranee so VOLTAGE versus See oe

6 Te CT ee

PL UII eee TTT & SC ae Det bettie 1 ee 5 Bb ttt CTT § ONCE s it eins Cn = OR mai So SE Bo ho Se mani SC UTEN SE MOTOROLA LINEAR/INTERFACE DEVICES 2-337

MC34181,2,4, MC35181,2,4, MC33181,2,4 . versus TEMPERATURE FIGURE 10 — OUTPUT IMPEDANCE versus FREQUENCY a 2 ire Cc LE oo S Vee = -15V —+— __ WO — Veg = = 15 a re 4 atime TIME TAM TT a =ae5 pe ae 2 = = " a rt: Let AT el § yr 3 | Ege ret ZAZA A g TSCA g ao Let Le at ai | [| Lt) ete PURE Tne FREQUENCY FGURE 12 — OUTPUT DISTORTION versus FREQUENCY Coe, “OTE

3 OCIA) Zoe Ia

Fi 0 v= 20% TTT IMT AM

2 SLA = wns +

2 TN ee com OT a

ee |g HT eel oe Heke NET z EE Ee, “fl Fg gL atl 5S SN WE sl LAT NTT) = eee ee N ® Ce CO TS eT a FIGURE 13 — OPEN-LOOP VOLTAGE GAIN. FIGURE 14 — OPEN-LOOP VOLTAGE GAIN AND PHASE versus TEMPERATURE versus FREQUENCY : 4 SS ee ee SE ee SAT TN GG BENT y sa ZL EN §,ONENE TE eZ er | NNTP 8 rt KEE EE AE. MOTOROLA LINEAR/INTERFACE DEVICES 2-338

MC34181,2,4, MC35181,2,4, MC33181,2,4 FIGURE 15 — NORMALIZED GAIN BANDWIDTH PRODUCT FIGURE 16 — OUTPUT VOLTAGE OVERSHOOT versus versus TEMPERATURE LOAD CAPACITANCE a1 ee 1 2 g ee] ] oe fee Too | 2 TN eon Baba on Ht mBP til

2 L BL alg = 0mipp Pai

1 a ~WV<Vo= +10¥ 7 I. T] gatas rail a b> 2 ol a a g S 2 a [| ~ 5 ett oo Fe wet 8 Ler Ur Ty i zu a Ce com oon FIGURE 17 — PHASE MARGIN versus LOAD CAPACITANCE FIGURE 18 — GAIN MARGIN versus LOAD CAPACITANCE ee Hg

2 Toten | eC: ar

& TOV = Vo< +104) S =10V< Vg < +101 et TN eT 3 JOC ey BLUR CB RE i i IN Foe a 3 all NH i ease | za aimee a COU Na eT Sse ‘ eto CO ‘| A a FIGURE 19 — PHASE MARGIN versus TEMPERATURE FIGURE 20 — GAIN MARGIN versus TEMPERATURE Pt [tate TT] a it | Tt SS st = 2 79) — — i a it & x Vee = = 15 20) RL = 1k te x ee MOTOROLA LINEAR/INTERFACE DEVICES 2-339

ee SVwsxIAe srg | i . NT _ | : | Co ee, — I __ ‘tet - rs oC {__— te 4 I yg OO — ——— , _ Se O————