Anterwell Technology Ltd. |
|
LF357N Integrated Circuit Electronics Components amplifier ic chip in electronics
Part no. | Quantity | Brand | D/C | Package |
ZXMC3A16DN8TC | 6800 | ZETEX | 14+ | SOP8 |
LP2980IM5X-3.3 | 6802 | NS | 14+ | SOT23-5 |
AO3406 | 6820 | AOS | 14+ | SOT-23 |
APM4546KC-TRL | 6850 | ANPEC | 16+ | SOP-8 |
IRFU5505 | 6866 | IR | 16+ | TO-251 |
MUR1640CTG | 6880 | ON | 13+ | TO-220 |
TOP247YN | 6882 | POWER | 15+ | TO-220 |
PIC16LF876A-I/SS | 6885 | MICROCHIP | 16+ | SSOP |
UC3842BD | 6888 | ST | 16+ | SOP8 |
UCC2804D | 6900 | TI | 14+ | SOP8 |
LM385M3X-1.2 | 6999 | NS | 14+ | SOT-23 |
BT136-600D | 7000 | PHILIPS | 14+ | TO-220 |
BYW29E-200 | 7000 | NXP | 16+ | TO-220 |
FDC6323L | 7000 | FAIRCHILD | 16+ | SOT163 |
FT232BL | 7000 | FTDI | 13+ | LQFP-32 |
IRFP4568PBF | 7000 | IR | 15+ | TO-247 |
IRLML2502TR | 7000 | IR | 16+ | SOT23 |
LL4148 | 7000 | VISHAY | 16+ | LL-34 |
LNK305PN | 7000 | POWER | 14+ | DIP7 |
MAX489ESD | 7000 | MAXIM | 14+ | SOP-14 |
MCP4922-E/SL | 7000 | MICROCHIP | 14+ | SOP |
MJD32CT | 7000 | ON | 16+ | SOT252 |
MM74HC595M | 7000 | FAIRCHILD | 16+ | SOP-16 |
P3055LDG | 7000 | NIKO | 13+ | TO-252 |
PIC24FJ64GA006-I/PT | 7000 | MICROCHIP | 15+ | TQFP |
SN74HC595DWR | 7000 | TI | 16+ | SOIC16 |
STN790A | 7000 | ST | 16+ | SOT223 |
TD62083AFG | 7000 | TOSHIBA | 14+ | SOP18 |
TLP126 | 7000 | TOSHIBA | 14+ | SOP |
TOP221PN | 7000 | POWER | 14+ | DIP8 |
LF155/LF156/LF256/LF257/LF355/LF356/LF357
JFET Input Operational Amplifiers
General Description
These are the first monolithic JFET input operational amplifiers to incorporate well matched, high voltage JFETs on the same chip with standard bipolar transistors (BI-FET™ Technology). These amplifiers feature low input bias and offset currents/low offset voltage and offset voltage drift, coupled with offset adjust which does not degrade drift or common-mode rejection.
The devices are also designed for high slew rate, wide bandwidth, extremely fast settling time, low voltage and current noise and a low 1/f noise corner.
Features
Advantages
Applications
Common Features
Uncommon Features
LF155/ LF355 | LF156/ LF256/ LF356 | LF257/ LF357 (AV=5) | Units | |
Extremely fast settling time to 0.01% | 4 | 1.5 | 1.5 | µs |
Fast slew rate | 5 | 12 | 50 | V/µs |
Wide gain bandwidth | 2.5 | 5 | 20 | MHz |
Low input noise voltage | 20 | 12 | 12 | nV/√Hz |
Absolute Maximum Ratings (Note 1)
If Military/Aerospace specified devices are required, contact the National Semiconductor Sales Office/Distributors for availability and specifications.
LF155/6 | LF256/7/LF356B | LF355/6/7 | |
Supply Voltage | ±22V | ±22V | ±18V |
Differential Input Voltage | ±40V | ±40V | ±30V |
Input Voltage Range (Note 2) | ±20V | ±20V | ±16V |
Output Short Circuit Duration | Continuous | Continuous | Continuous |
TJMAX H-Package N-Package M-Package |
150˚C
|
115˚C 100˚C 100˚C |
115˚C 100˚C 100˚C |
Power Dissipation at TA = 25˚C (Notes 1, 8) H-Package (Still Air) H-Package (400 LF/Min Air Flow) N-Package M-Package |
560 mW 1200 mW
|
400 mW 1000 mW 670 mW 380 mW |
400 mW 1000 mW 670 mW 380 mW |
Thermal Resistance (Typical) θJA H-Package (Still Air) H-Package (400 LF/Min Air Flow) N-Package M-Package |
160˚C/W 65 ˚C/W
|
160˚C/W 65 ˚C/W 130 ˚C/W 195 ˚C/W |
160˚C/W 65 ˚C/W 130 ˚C/W 195 ˚C/W |
Thermal Resistance (Typical) θJC H-Package |
23˚C/W |
23˚C/W |
23˚C/W |
Storage Temperature Range | −65˚C to +150˚C | −65˚C to +150˚C | −65˚C to +150˚C |
Soldering Information (Lead Temp.) Metal Can Package Soldering (10 sec.) Dual-In-Line Package Soldering (10 sec.) Small Outline Package Vapor Phase (60 sec.) Infrared (15 sec.) |
300˚C 260˚C
|
300˚C 260˚C
215˚C 220˚C |
300˚C 260˚C
215˚C 220˚C |
ESD tolerance (100 pF discharged through 1.5kΩ) |
1000V |
1000V |
1000V |
Note 1: The maximum power dissipation for these devices must be derated at elevated temperatures and is dictated by TJMAX, θJA, and the ambient temperature, TA. The maximum available power dissipation at any temperature is PD=(TJMAX−TA)/θJA or the 25˚C PdMAX, whichever is less.
Note 2: Unless otherwise specified the absolute maximum negative input voltage is equal to the negative power supply voltage.
Simplified Schematic