LMP860x, LMP860x-Q1 60-V, Bidirectional, Low- or High-Side, Voltage-Output, Current-Sensing Amplifiers
- SNOSAR2H September 2008 – April 2016 LMP8601 , LMP8601-Q1 , LMP8602 , LMP8602-Q1 , LMP8603 , LMP8603-Q1
  
  PRODUCTION DATA.

Full reading width

DATA SHEET

LMP860x, LMP860x-Q1 60-V, Bidirectional, Low- or High-Side, Voltage-Output, Current-Sensing Amplifiers

1 Features

Gain = 20x for LMP8601 and LMP8601-Q1
Gain = 50x for LMP8602 and LMP8602-Q1
Gain = 100x for LMP8603 and LMP8603-Q1
TCV_OS: 10 μV/°C Maximum
CMRR: 90-dB Minimum
Input Offset Voltage: 1-mV Maximum
CMVR at V_S = 3.3 V: –4 V to 27 V
CMVR at V_S = 5 V: –22 V to 60 V
Single-Supply Bidirectional Operation
All Minimum and Maximum Limits 100% Tested
Q1 Devices Qualified for Automotive Applications
Q1 Devices ACE-Q100 Qualified With the Following Results:
- Device Temperature Grade 1: –40°C to 125°C Ambient Operating Temperature Range
- Device Temperature Grade 0: –40°C to 150°C (LMP8601EDRQ1 Only)
- Device HBM ESD Classification Level 2
  (3A on inputs)
- Device CDM ESD Classification Level C6
- Device MM ESD Classification Level M2

2 Applications

High-Side and Low-Side Driver Configuration Current Sensing
Bidirectional Current Measurement
Current Loop to Voltage Conversion
Automotive Fuel Injection Control
Transmission Control
Power Steering
Battery Management Systems

3 Description

The LMP8601, LMP8602, LMP8603 (LMP860x) and LMP8601-Q1, LMP8602-Q1, LMP8603-Q1 (LMP860x-Q1) devices are fixed-gain, precision current-sense amplifiers (also referred to as current-shunt monitors). The input common-mode voltage range is –22 V to +60 V when operating from a single 5-V supply, or –4 V to +27 V with a 3.3-V supply. The LMP860x and LMP860x-Q1 are ideal parts for unidirectional and bidirectional current sensing applications.

These devices have a precise gain of 20x (LPM8601, LPM8601-Q1), 50x (LPM8602, LPM8602-Q1), and 100x (LPM8603, LPM8603-Q1), and are adequate in most targeted applications to drive an ADC to full-scale value. The fixed gain is achieved in two separate stages: a preamplifier with a gain of 10x and an output stage buffer amplifier with a gain of 2x (LMP8601, LMP8601-Q1), 5x (LMP8602, LMP8602-Q1), or 10x (LMP8603, LMP8603-Q1). The path between the two stages is brought out on two pins to enable the option of an additional filter network or modifying the gain.

The offset input pin enables these devices for unidirectional or bidirectional single supply voltage current sensing.

The LMP860x-Q1 devices incorporate enhanced manufacturing and support processes for the automotive market and are compliant with the AEC-Q100 standard.

Device Information⁽¹⁾

PART NUMBER	PACKAGE	BODY SIZE (NOM)
LMP860x	SOIC (8)	4.90 mm x 3.91 mm
LMP860x-Q1	SOIC (8)	4.90 mm x 3.91 mm
LMP8602, LMP8603	VSSOP (8)	3.00 mm × 3.00 mm
LMP8602-Q1, LMP8603-Q1	VSSOP (8)	3.00 mm × 3.00 mm

For all available packages, see the package option addendum at the end of the data sheet.

Typical Applications

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157101.gif

4 Revision History

Changes from G Revision (July 2015) to H Revision

Added new temperature grade 0 version of LMP8601-Q1Go
Added LMP8602, LMP8602-Q1, LMP8603, and LMP8603-Q1 devices and related information to data sheetGo
Changed Features bullets Go
Changed text in Description sectionGo
Added new values to Thermal Information tableGo
Changed R_θJA value in Thermal Information tableGo
Changed all AV1 to K1 throughout data sheet for consistencyGo
Changed all AV2 to K2 throughout data sheet for consistencyGo
Deleted previous Note 1 from Electrical Characteristics tables.Go
Deleted Related Documentation section; SNOSB36 data sheet content now combined with this data sheetGo

Changes from F Revision (January 2014) to G Revision

Added ESD Ratings table, and Pin Configuration and Functions, Feature Description, Device Functional Modes, Application and Implementation, Power Supply Recommendations, Layout, Device and Documentation Support, and Mechanical, Packaging, and Orderable Information sections.Go

Changes from E Revision (March 2013) to F Revision

Added four typical curvesGo

Changes from D Revision (October 2009) to E Revision

Changed layout of National Data Sheet to TI formatGo

5 Pin Configuration and Functions

D Package

8-Pin SOIC

Top View

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083402.gif

DGK Package

8-Pin VSSOP

Top View

Pin Descriptions

PIN		TYPE	DESCRIPTION
NAME	NO.	TYPE	DESCRIPTION
A1	3	O	Preamplifier output
A2	4	I	Input from the external filter network and, or A1
GND	2	P	Power ground
+IN	8	I	Positive input
-IN	1	I	Negative input
OFFSET	7	I	DC offset for bidirectional signals
OUT	5	O	Single-ended output
V_S	6	P	Positive supply voltage

6 Specifications

6.1 Absolute Maximum Ratings

over operating free-air temperature range (unless otherwise noted)⁽¹⁾

		MIN	MAX	UNIT
Supply voltage (V_S – GND)		–0.3	6	V
Continuous input voltage (–IN and +IN)		–22	60	V
Transient (400 ms)		–25	65	V
Maximum voltage at A1, A2, OFFSET and OUT pins		V_S + 0.3	GND – 0.3	V
Operating temperature, T_A	LMP8601EDRQ1 only	–40	150	°C
Operating temperature, T_A	All other devices	–40	125	°C
Junction temperature⁽²⁾		–40	150	°C
Mounting temperature	Infrared or convection (20 sec)		235	°C
Mounting temperature	Wave soldering lead (10 sec)		260	°C
Storage temperature, T_stg		–65	150	°C

(1) Stresses beyond those listed under Absolute Maximum Ratings may cause permanent damage to the device. These are stress ratings only, which do not imply functional operation of the device at these or any other conditions beyond those indicated under Recommended Operating Conditions. Exposure to absolute-maximum-rated conditions for extended periods may affect device reliability.

(2) The maximum power dissipation must be derated at elevated temperatures and is dictated by T_J(MAX), R_θJA, and the ambient temperature, T_A. The maximum allowable power dissipation P_DMAX = (T_J(MAX) – T_A) / R_θJA or the number given in Absolute Maximum Ratings, whichever is lower.

6.2 ESD Ratings: LMP860x

				VALUE	UNIT
V_(ESD)	Electrostatic discharge	Human body model (HBM), per ANSI/ESDA/JEDEC JS-001⁽¹⁾	All pins except 1 and 8	±2000	V
		Human body model (HBM), per ANSI/ESDA/JEDEC JS-001⁽¹⁾	Pins 1 and 8	±4000
		Charged-device model (CDM), per JEDEC specification JESD22-C101⁽²⁾		±1000
		Machine model		±200

(1) JEDEC document JEP155 states that 500-V HBM allows safe manufacturing with a standard ESD control process.

(2) JEDEC document JEP157 states that 250-V CDM allows safe manufacturing with a standard ESD control process.

6.3 ESD Ratings: LMP860x-Q1

				VALUE	UNIT
V_(ESD)	Electrostatic discharge	Human body model (HBM), per AEC Q100-002⁽¹⁾	All pins except 1 and 8	±2000	V
		Human body model (HBM), per AEC Q100-002⁽¹⁾	Pins 1 and 8	±4000
		Charged-device model (CDM), per AEC Q100-011		±1000
		Machine model		±200

(1) AEC Q100-002 indicates that HBM stressing shall be in accordance with the ANSI/ESDA/JEDEC JS-001 specification.

6.4 Recommended Operating Conditions

over operating free-air temperature range (unless otherwise noted)

		MIN	MAX	UNIT
Supply voltage (V_S – GND)		3	5.5	V
OFFSET voltage (Pin 7)		0	V_S	V
Operating temperature, T_A ⁽¹⁾	LMP8601EDRQ1 only	–40	150	°C
Operating temperature, T_A ⁽¹⁾	All other devices	–40	125	°C

(1) The maximum power dissipation must be derated at elevated temperatures and is dictated by T_J(MAX), R_θJA, and the ambient temperature, T_A. The maximum allowable power dissipation P_DMAX = (T_J(MAX) – T_A) / R_θJA or the number given in Absolute Maximum Ratings, whichever is lower.

6.5 Thermal Information

THERMAL METRIC⁽¹⁾		LMP860x, LMP860x-Q1	LMP8602, LMP8602-Q1, LMP8603, LMP8603-Q1	UNIT
		D (SOIC)	DGK (VSSOP)
		8 PINS	8 PINS
R_θJA	Junction-to-ambient thermal resistance⁽²⁾	113.1	171.1	°C/W
R_θJC(top)	Junction-to-case (top) thermal resistance	57.3	64.1	°C/W
R_θJB	Junction-to-board thermal resistance	53.5	91.1	°C/W
ψ_JT	Junction-to-top characterization parameter	11.1	9.4	°C/W
ψ_JB	Junction-to-board characterization parameter	53.0	89.7	°C/W
R_θJC(bot)	Junction-to-case (bottom) thermal resistance	N/A	N/A	°C/W

(1) For more information about traditional and new thermal metrics, see the Semiconductor and IC Package Thermal Metrics application report, SPRA953.

6.6 Electrical Characteristics: V_S = 3.3 V

at T_A = 25°C, V_S = 3.3 V, GND = 0 V, –4 V ≤ V_CM ≤ 27 V, R_L = ∞, OFFSET (pin 7) is grounded, and 10 nF between V_S and GND (unless otherwise noted)

PARAMETER		TEST CONDITIONS			MIN⁽¹⁾	TYP⁽²⁾	MAX⁽¹⁾	UNIT
OVERALL PERFORMANCE (FROM -IN (PIN 1) AND +IN (PIN 8) TO OUT (PIN 5) WITH PINS A1 (PIN 3) AND A2 (PIN 4) CONNECTED)
I_S	Supply current					1		mA
I_S	Supply current	Over full temperature range			0.6		1.3	mA
A_V	Total gain	LMP8601, LMP8601-Q1			19.9	20	20.1	V/V
		LMP8602, LMP8602-Q1			49.75	50	50.25
		LMP8603, LMP8603-Q1			99.5	100	100.5
	Gain Drift⁽¹⁰⁾	Over full temperature range				–2.7	±20	ppm/°C
SR	Slew rate⁽³⁾	V_IN = ±0.165 V			0.4	0.7		V/μs
BW	Bandwidth				50	60		kHz
V_OS	Input offset voltage	V_CM = V_S / 2				0.15	±1	mV
TCV_OS	Input offset voltage drift⁽⁴⁾	Over full temperature range				2	±10	μV/°C
e_n	Input-referred voltage noise	0.1 Hz - 10 Hz, 6 sigma				16.4		μV_P-P
e_n	Input-referred voltage noise	Spectral density, 1 kHz				830		nV/√Hz
PSRR	Power-supply rejection ratio	3.0 V ≤ V_S ≤ 3.6 V, DC, V_CM = V_S/2				86		dB
PSRR	Power-supply rejection ratio	3.0 V ≤ V_S ≤ 3.6 V, DC, V_CM = V_S/2	Over full temperature range		70			dB
	Midscale offset scaling accuracy	LMP8601, LMP8601-Q1				±0.15%	±0.5%
		LMP8601, LMP8601-Q1	Input referred				±0.413	mV
		LMP8602, LMP8602-Q1				±0.25%	±1%
		LMP8602, LMP8602-Q1	Input referred				±0.33	mV
		LMP8603, LMP8603-Q1				±0.45%	±1.5%
		LMP8603, LMP8603-Q1	Input referred				±0.248	mV
PREAMPLIFIER (FROM INPUT PINS -IN, (PIN 1) AND +IN (PIN 8) TO A1 (PIN 3))
R_CM	Input impedance common mode	–4 V ≤ V_CM ≤ 27 V				295		kΩ
R_CM	Input impedance common mode	–4 V ≤ V_CM ≤ 27 V	Over full temperature range		250		350	kΩ
R_DM	Input impedance differential mode	–4 V ≤ V_CM ≤ 27 V				590		kΩ
R_DM	Input impedance differential mode	–4 V ≤ V_CM ≤ 27 V	Over full temperature range		500		700	kΩ
V_OS	Input offset voltage	V_CM = V_S / 2				±0.15	±1	mV
DC CMRR	DC common-mode rejection ratio	–2 V ≤ V_CM ≤ 24 V				96		dB
DC CMRR	DC common-mode rejection ratio	–2 V ≤ V_CM ≤ 24 V	Over full temperature range		86			dB
AC CMRR	AC common-mode rejection ratio⁽⁵⁾	f = 1 kHz			80	94		dB
AC CMRR	AC common-mode rejection ratio⁽⁵⁾	f = 10 kHz				85		dB
CMVR	Input common-mode voltage range	for 80-dB CMRR	Over full temperature range		–4		27	V
K1	Preamplifier gain⁽¹⁰⁾				9.95	10.0	10.05	V/V
R_F-INT	Output impedance filter resistor					100		kΩ
		–40°C ≤ T_A ≤ 125°C			99		101
		–40°C ≤ T_A ≤ 150°C, LMP8601EDRQ1 only			97		103
TCR_F-INT	Output impedance filter resistor drift	Over full temperature range				±5	±50	ppm/°C
A1 V_OUT	A1 output voltage swing	V_OL, R_L = ∞				2		mV
		V_OL, R_L = ∞	Over full temperature range				10	mV
		V_OH, R_L = ∞				3.25		V
		V_OH, R_L = ∞	Over full temperature range		3.2			V
OUTPUT BUFFER (FROM A2 (PIN 4) TO OUT (PIN 5 ))
V_OS	Input offset voltage	0V ≤ V_CM ≤ V_S			–2	±0.5	2	mV
V_OS	Input offset voltage	0V ≤ V_CM ≤ V_S	Over full temperature range		–2.5		2.5	mV
K2	Output buffer gain⁽¹⁰⁾	LMP8601, LMP8601-Q1			1.99	2	2.01	V/V
		LMP8602, LMP8602-Q1			4.975	5	5.025
		LMP8603, LMP8603-Q1			9.95	10	10.05
I_B	Input bias current of A2⁽⁶⁾,					–40		fA
I_B	Input bias current of A2⁽⁶⁾,	Over full temperature range					±20	nA
A2 V_OUT	A2 output voltage swing⁽⁷⁾ ⁽⁸⁾	V_OL, R_L = 100 kΩ	LMP8601, LMP8601-Q1,			4		mV
			LMP8601, LMP8601-Q1,	Over full temperature range			20
			LMP8602, LMP8602-Q1			10
			LMP8602, LMP8602-Q1	Over full temperature range			40
			LMP8603, LMP8603-Q1			10
			LMP8603, LMP8603-Q1	Over full temperature range			80
		V_OH, R_L = 100 kΩ				3.29		V
		V_OH, R_L = 100 kΩ	Over full temperature range		3.28			V
I_SC	Output short-circuit current⁽⁹⁾	Sourcing, V_IN = V_S, V_OUT = GND			–25	–38	–60	mA
I_SC	Output short-circuit current⁽⁹⁾	Sinking, V_IN = GND, V_OUT = V_S			30	46	65	mA

(1) Data sheet min and max limits are specified by test.

(2) Typical values represent the most likely parameter norms at T_A = 25°C, and at the Recommended Operation Conditions at the time of product characterization.

(3) Slew rate is the average of the rising and falling slew rates.

(4) Offset voltage drift determined by dividing the change in V_OS at temperature extremes into the total temperature change.

(5) AC common-mode signal is a 5-V_PP sine-wave (0 V to 5 V) at the given frequency.

(6) Positive current corresponds to current flowing into the device.

(7) For this test input is driven from A1 stage.

(8) For V_OL, R_L is connected to V_S and for V_OH, R_L is connected to GND.

(9) Short-Circuit test is a momentary test. Continuous short circuit operation at elevated ambient temperature can result in exceeding the maximum allowed junction temperature of 150°C.

(10) Both the gain of preamplifier K1 and the gain of buffer amplifier K2 are measured individually. The overall gain of both amplifiers (A_V) is also measured to assure the gain of all parts is always within the A_V limits.

6.7 Electrical Characteristics: V_S = 5 V

at T_A = 25°C, V_S = 5 V, GND = 0 V, –22 V ≤ V_CM ≤ 60 V, R_L = ∞, OFFSET (pin 7) is grounded, and 10 nF between V_S and GND (unless otherwise noted)

PARAMETER		TEST CONDITIONS			MIN⁽¹⁾	TYP⁽²⁾	MAX⁽¹⁾	UNIT
OVERALL PERFORMANCE (FROM -IN (PIN 1) AND +IN (PIN 8) TO OUT (PIN 5) WITH PINS A1 (PIN 3) AND A2 (PIN 4) CONNECTED)
I_S	Supply current					1.1		mA
I_S	Supply current	Over full temperature range			0.7		1.5	mA
A_V	Total gain⁽¹⁰⁾	LMP8601, LMP8601-Q1			19.9	20	20.1	V/V
		LMP8602, LMP8602-Q1			49.75	50	50.25
		LMP8603, LMP8603-Q1			99.5	100	100.5
	Gain drift	–40°C ≤ T_A ≤ 125°C				–2.8	±20	ppm/°C
SR	Slew rate⁽³⁾	V_IN = ±0.25 V			0.6	0.83		V/μs
BW	Bandwidth				50	60		kHz
V_OS	Input offset voltage					0.15	±1	mV
TCV_OS	Input offset voltage drift⁽⁴⁾	–40°C ≤ T_A ≤ 125°C				2	±10	μV/°C
e_N	Input-referred voltage noise	0.1 Hz - 10 Hz, 6 sigma				17.5		μV_P-P
e_N	Input-referred voltage noise	Spectral density, 1 kHz				890		nV/√Hz
PSRR	Power-supply rejection ratio	4.5 V ≤ V_S ≤ 5.5 V, DC				90		dB
PSRR	Power-supply rejection ratio	4.5 V ≤ V_S ≤ 5.5 V, DC	Over full temperature range		70			dB
	Midscale offset scaling accuracy	LMP8601, LMP8601-Q1				±0.15%	±0.5%
		LMP8601, LMP8601-Q1	Input-referred				±0.625	mV
		LMP8602, LMP8602-Q1				±0.25%	±1%
		LMP8602, LMP8602-Q1	Input-referred				±0.50	mV
		LMP8603, LMP8603-Q1				±0.45%	±1.5%
		LMP8603, LMP8603-Q1	Input-referred				±0.375	mV
PREAMPLIFIER (FROM INPUT PINS -IN (PIN 1) AND +IN (PIN 8) TO A1 (PIN 3))
R_CM	Input impedance, common mode	0 V ≤ V_CM ≤ 60 V				295		kΩ
		0 V ≤ V_CM ≤ 60 V	Over full temperature range		250		350	kΩ
		–20 V ≤ V_CM ≤ 0 V				193		kΩ
		–20 V ≤ V_CM ≤ 0 V	Over full temperature range		165		250	kΩ
R_DM	Input impedance, differential mode	0 V ≤ V_CM ≤ 60 V				590		kΩ
		0 V ≤ V_CM ≤ 60 V	Over full temperature range		500		700	kΩ
		–20 V ≤ V_CM ≤ 0 V				386		kΩ
		–20 V ≤ V_CM ≤ 0 V	Over full temperature range		300		500	kΩ
V_OS	Input offset voltage	V_CM = V_S / 2				±0.15	±1	mV
DC CMRR	DC common-mode rejection ratio	–20 V ≤ V_CM ≤ 60 V				105		dB
DC CMRR	DC common-mode rejection ratio	–20 V ≤ V_CM ≤ 60 V	Over full temperature range		90			dB
AC CMRR	AC common-mode rejection ratio⁽⁵⁾	f = 1 kHz			80	96		dB
AC CMRR	AC common-mode rejection ratio⁽⁵⁾	f = 10 kHz				83		dB
CMVR	Input common-mode voltage range	for 80-dB CMRR	Over full temperature range		–22		60	V
K1	Preamplifier gain⁽¹⁰⁾				9.95	10	10.05	V/V
R_F-INT	Output impedance filter resistor					100		kΩ
		–40°C ≤ T_A ≤ 125°C,			99		101
		–40°C ≤ T_A ≤ 150°C, LMP8601EDRQ1 only			97		103
TCR_F-INT	Output impedance filter resistor drift					±5	±50	ppm/°C
A1 V_OUT	A1 output voltage swing	V_OL, R_L = ∞				2		mV
		V_OL, R_L = ∞	Over full temperature range				10	mV
		V_OH, R_L = ∞				4.985		V
		V_OH, R_L = ∞	Over full temperature range		4.95			V
OUTPUT BUFFER (FROM A2 (PIN 4) TO OUT (PIN 5))
V_OS	Input offset voltage	0V ≤ V_CM ≤ V_S			–2	±0.5	2	mV
V_OS	Input offset voltage	0V ≤ V_CM ≤ V_S	Over full temperature range		–2.5		2.5	mV
K2	Output buffer gain⁽¹⁰⁾	LMP8601, LMP8601-Q1			1.99	2	2.01	V/V
		LMP8602, LMP8602-Q1			4.975	5	5.025
		LMP8603, LMP8603-Q1			9.95	10	10.05
I_B	Input bias current of A2⁽⁶⁾					–40		fA
I_B	Input bias current of A2⁽⁶⁾	Over full temperature range					±20	nA
A2 V_OUT	A2 output voltage swing⁽⁷⁾ ⁽⁸⁾	V_OL, R_L = ∞	LMP8601, LMP8601-Q1,			4		mV
			LMP8601, LMP8601-Q1,	Over full temperature range			20
			LMP8602, LMP8602-Q1			10
			LMP8602, LMP8602-Q1	Over full temperature range			40
			LMP8602, LMP8603-Q1			10
			LMP8602, LMP8603-Q1	Over full temperature range			80
		V_OH, R_L = ∞				4.99		V
		V_OH, R_L = ∞	Over full temperature range		4.98			V
I_SC	Output short-circuit current⁽⁹⁾	Sourcing, V_IN = V_S, V_OUT = GND			–25	–42	–60	mA
I_SC	Output short-circuit current⁽⁹⁾	Sinking, V_IN = GND, V_OUT = V_S			30	48	65	mA

6.8 Typical Characteristics

at T_A = 25°C, V_S = 5 V, GND = 0 V, –22 ≤ V_CM ≤ 60 V, R_L = ∞, OFFSET (pin 7) connected to V_S, and 10 nF between V_S and GND (unless otherwise noted)

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157124.gif

Figure 1. V_OS vs V_CM at V_S = 3.3 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157141.gif

Figure 3. Input Bias Current Over Temperature (+IN and –IN pins) at V_S = 3.3 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157127.gif

Figure 5. Input Bias Current Over Temperature (A2 pin) at V_S = 5 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157110.gif

Figure 7. Input-Referred Voltage Noise vs Frequency

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157111.gif

Figure 9. Gain vs Frequency at V_S = 3.3 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157128.gif

Figure 11. CMRR vs Frequency at V_S = 3.3 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157118.gif

Figure 13. Step Response at V_S = 3.3 V
LMP8601 and LMP8601-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157120.gif

Figure 15. Settling Time (Falling Edge) at V_S = 3.3 V
LMP8601 and LMP8601-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157122.gif

Figure 17. Settling Time (Rising Edge) at V_S = 3.3 V
LMP8601 and LMP8601-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083418.gif

Figure 19. Step Response at V_S = 3.3 V, R_L = 10 kΩ
LMP8602 and LMP8602-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083420.gif

Figure 21. Settling Time (Falling Edge) at V_S = 3.3 V
LMP8602 and LMP8602-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083422.gif

Figure 23. Settling Time (Rising Edge) at V_S = 3.3 V
LMP8602 and LMP8602-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083443.gif

Figure 25. Step Response at V_S = 3.3 V, R_L = 10 kΩ
LMP8603 and LMP8603-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083445.gif

Figure 27. Settling Time (Falling Edge) at V_S = 3.3 V
LMP8603 and LMP8603-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083447.gif

Figure 29. Settling Time (Rising Edge) at V_S = 3.3 V
LMP8603 and LMP8603-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157113.gif

Figure 31. Positive Swing vs R_LOAD at V_S = 3.3 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157115.gif

Figure 33. Positive Swing vs R_LOAD V_S = 5 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157134.gif

Figure 35. V_OS Distribution at V_S = 3.3 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157136.gif

Figure 37. TCV_OS Distribution

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083437.gif

Figure 39. Gain Drift Distribution, 5000 Parts
LMP8602 and LMP8602-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157138.gif

Figure 41. Gain Error Distribution at V_S = 3.3 V
LMP8601 and LMP8601-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083438.gif

Figure 43. Gain Error Distribution at V_S = 3.3 V, 5000 Parts
LMP8602 and LMP8602-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083484.gif

Figure 45. Gain Error Distribution at V_S = 3.3 V, 5000 Parts
LMP8603 and LMP8603-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157132.gif

Figure 47. CMRR Distribution at V_S = 3.3 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 C001_SNOSAR2.png

Figure 49. Output Voltage vs VIN

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 C002_SNOSAR2.png

Figure 51. Output Voltage vs VIN

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157125.gif

Figure 2. V_OS vs V_CM at V_S = 5 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157142.gif

Figure 4. Input Bias Current Over Temperature (+IN and –IN pins) at V_S = 5 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157126.gif

Figure 6. Input Bias Current Over Temperature (A2 pin) at V_S = 5 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157117.gif

Figure 8. PSRR vs Frequency

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157112.gif

Figure 10. Gain vs Frequency at V_S = 5 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157129.gif

Figure 12. CMRR vs Frequency at V_S = 5 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157119.gif

Figure 14. Step Response at V_S = 5 V
LMP8601 and LMP8601-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157121.gif

Figure 16. Settling Time (Falling Edge) at V_S = 5 V
LMP8601 and LMP8601-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157123.gif

Figure 18. Settling Time (Rising Edge) at V_S = 5 V
LMP8601 and LMP8601-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083419.gif

Figure 20. Step Response at V_S = 5 V, R_L = 10 kΩ
LMP8602 and LMP8602-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083421.gif

Figure 22. Settling Time (Falling Edge) at V_S = 5 V
LMP8602 and LMP8602-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083423.gif

Figure 24. Settling Time (Rising Edge) at V_S = 5 V
LMP8602 and LMP8602-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083444.gif

Figure 26. Step Response at V_S = 5 V, R_L = 10 kΩ
LMP8603 and LMP8603-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083446.gif

Figure 28. Settling Time (Falling Edge) at V_S = 5 V
LMP8603 and LMP8603-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083448.gif

Figure 30. Settling Time (Rising Edge) at V_S = 5 V
LMP8603 and LMP8603-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157114.gif

Figure 32. Negative Swing vs R_LOAD at V_S = 3.3 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157116.gif

Figure 34. Negative Swing vs R_LOAD at V_S = 5 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157135.gif

Figure 36. V_OS Distribution at V_S = 5 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157137.gif

Figure 38. Gain Drift Distribution, 1300 Parts
LMP8601 and LMP8601-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083483.gif

Figure 40. Gain Drift Distribution, 5000 Parts
LMP8603 and LMP8603-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157139.gif

Figure 42. Gain Error Distribution at V_S = 5 V
LMP8601 and LMP8601-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083439.gif

Figure 44. Gain Error Distribution at V_S = 5 V, 5000 Parts
LMP8602 and LMP8602-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 30083485.gif

Figure 46. Gain Error Distribution at V_S = 5 V
LMP8603 and LMP8603-Q1

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 20157133.gif

Figure 48. CMRR Distribution at V_S = 5 V

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 C003_SNOSAR2.png

Figure 50. Output Voltage vs VIN (Enlarged Close to 0 V)

LMP8601 LMP8601-Q1 LMP8602 LMP8602-Q1 LMP8603 LMP8603-Q1 C004_SNOSAR2.png

Figure 52. Output Voltage vs VIN (Enlarged Close to 0 V)