Texas Instruments
LMH6554LEX/NOPB
LMH6554LEX/NOPB
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LMH6554LEX/NOPB Texas Instruments - Yeehing Electronics
2.8 GHz Ultra Linear Fully Differential Amplifier
Pricing (USD)
| Quantity | Unit Price |
| 1 — 99 | 6.055 |
| 100 — 249 | 4.937 |
| 250 — 999 | 3.88 |
| 1,000 + | 2.63 |
The above prices are for reference only.
Specifications
| Manufacturer | Texas Instruments |
| Product Category | Differential Amplifiers |
| RoHS | Y |
| Series | LMH6554 |
| Number of Channels | 1 Channel |
| SR - Slew Rate | 6.2 kV/us |
| CMRR - Common Mode Rejection Ratio | 73 dB to 83 dB |
| Ib - Input Bias Current | 10 uA |
| Vos - Input Offset Voltage | 3 mV |
| Supply Voltage - Max | 5.25 V |
| Supply Voltage - Min | 4.7 V |
| Operating Supply Current | 52 mA |
| Minimum Operating Temperature | - 40 C |
| Maximum Operating Temperature | + 125 C |
| Mounting Style | SMD/SMT |
| Package / Case | LLP-14 |
| Packaging | Reel |
| Amplifier Type | Differential |
| Features | Shutdown |
| Height | 0.6 mm |
| Length | 2.5 mm |
| Product | Differential Amplifiers |
| Supply Type | Dual, Single |
| Width | 2.5 mm |
| Brand | Texas Instruments |
| Development Kit | LMH6554LE-EVAL/NOPB |
| Maximum Dual Supply Voltage | +/- 2.625 V |
| Maximum Input Resistance | 180 kOhms |
| Minimum Dual Supply Voltage | +/- 2.35 V |
| Moisture Sensitive | Yes |
| Operating Supply Voltage | 5 V |
| Product Type | Differential Amplifiers |
| PSRR - Power Supply Rejection Ratio | 74 dB |
| Factory Pack Quantity | 4500 |
| Subcategory | Amplifier ICs |
For more information, please refer to datasheet
Documents
| LMH6554LEX/NOPB Datasheet |
More Information
The LMH6554 device is a high-performance fully differential amplifier designed to provide the exceptional signal fidelity and wide large-signal bandwidth necessary for driving 8- to 16-bit high-speed data acquisition systems. Using TIs proprietary differential current mode input stage architecture, the LMH6554 has unity gain, small-signal bandwidth of 2.8 GHz and allows operation at gains greater than unity without sacrificing response flatness, bandwidth, harmonic distortion, or output noise performance.
