My Inquiry
My Account
Texas Instruments LMV710IDBVR
- Part No.:
- LMV710IDBVR
- Manufacturer:
- Texas Instruments
- Category:
- Instrumentation, Op Amps, Buffer Amps
- Package:
- SC-74A, SOT-753
- Datasheet:
-
LMV710IDBVR.pdf
- Description:
- IC OPAMP GP 1 CIRCUIT SOT23-5
- Quantity:
- Payment:
- Shipping:
Inventory:1,848
Please send an inquiry. Send us your inquiry, and we will respond immediately.
Product details
Overview
LMV710IDBVR from Texas Instruments is a single, low-power, rail-to-rail input/output (RRIO) operational amplifier in a 5-pin SOT-23 package, featuring 5 MHz gain bandwidth, 5 V/µs slew rate, and 0.4 mV typical input offset voltage. It delivers high output current drive (±25 mA), operates from 2.7 V to 5 V supply, and supports battery-powered RF power control in GSM/CDMA handsets.
For engineers reviewing the LMV710IDBVR datasheet, LMV710IDBVR pinout, LMV710IDBVR application, or LMV710IDBVR equivalent, key selection criteria include its RRIO operation with ±200 mV beyond rails input range, sub-10 µs turn-on time from shutdown (not applicable-LMV710 lacks shutdown pin), and rail-to-rail swing into 600 Ω load at 2.7 V and 5 V.
Technical Context
The LMV710IDBVR uses BiCMOS process technology to achieve low input bias current (4 pA typ) and high output current capability without external boost circuitry. Its input stage extends 200 mV beyond both supply rails, enabling accurate sensing near ground or VCC in single-supply systems.
It provides 80–123 dB large-signal voltage gain across temperature and supply voltage, with 60° phase margin ensuring stable unity-gain buffer operation into capacitive loads up to 100 pF. Unlike LMV711/LMV715, LMV710 has no shutdown pin-its 5-pin configuration omits SHDN, simplifying layout for always-on signal conditioning.
Key Specifications
| Parameter | Value and Actual Design Meaning |
|---|---|
| Supply Voltage Range | 2.7 V to 5 V - supports direct connection to Li-ion battery (3.0–4.2 V) or regulated 3.3 V/5 V rails. |
| Gain Bandwidth Product | 5 MHz typ - enables stable closed-loop gain ≥10 up to ~500 kHz with adequate phase margin. |
| Slew Rate | 5 V/µs typ - supports 1 Vpp signals up to ~800 kHz without significant slew-induced distortion. |
| Input Offset Voltage | 0.4 mV typ, 3 mV max - ensures ≤0.02% error in 2 V full-scale precision DC amplification. |
| Input Common-Mode Range | –0.2 V to VCC+0.3 V - allows input signals down to 200 mV below ground and up to 300 mV above VCC in single-supply mode. |
| Rail-to-Rail Output Swing | Within 12 mV of rails into 10 kΩ; within 230 mV into 600 Ω - maintains dynamic range in low-voltage ADC driver and transimpedance applications. |
| Supply Current | 1.17–1.7 mA typ (ON mode) - enables continuous operation in portable devices with <2 µA standby current not required (no shutdown). |
Pinout & Package
SOT-23-5 (DBV) package: 2.9 mm × 1.6 mm × 1.15 mm body, gull-wing leads, RoHS-compliant CU NIPDAU finish, MSL Level-1.
| Pin/Terminal | Circuit Role | Design Meaning |
|---|---|---|
| 1 | Inverting Input (IN−) | Differential input node; high-impedance (4 pA bias), accepts signals from –0.2 V to VCC+0.3 V. |
| 2 | Non-Inverting Input (IN+) | Differential input node; identical common-mode range and bias as IN−; used for unity-gain follower or summing junction. |
| 3 | Output (OUT) | Class AB output stage capable of sourcing/sinking ±25 mA into 600 Ω while maintaining rail-to-rail swing. |
| 4 | VCC− (Ground) | Power return reference; must be low-impedance path to system ground; decoupling capacitor recommended adjacent to pin. |
| 5 | VCC+ | Positive supply input; operates from 2.7 V to 5 V; requires local 0.1 µF ceramic decoupling to VCC−. |
Key Features
| Feature | Design Value |
|---|---|
| Rail-to-rail input and output | Enables full utilization of 2.7 V–5 V supply range in single-supply configurations, eliminating level-shifting components. |
| High output current drive | ±25 mA min into 600 Ω allows direct interface to RF power amplifier bias control lines without external buffers. |
| Low input offset voltage | 0.4 mV typical ensures minimal DC error in closed-loop gain stages used for sensor signal conditioning and AGC loops. |
| Low input bias current | 4 pA typical minimizes voltage drop across high-impedance source networks (e.g., photodiode TIA feedback paths). |
| 5 MHz GBW at low supply current | Delivers usable bandwidth for IF filtering, envelope detection, and baseband signal processing while consuming only ~1.5 mA. |
Applications
| RF Power Amplifier Bias Control | Wireless LAN Baseband Signal Conditioning |
|---|---|
Use Scenario: Regulating bias current of PA stages in GSM/CDMA handsets using DAC-controlled loop feedback. IC Role / Device Role / Timing Role: Precision current-setting amplifier in closed-loop bias control; operates continuously during transmit bursts. Use Value: RRIO operation ensures full DAC output range (0–2.7 V) maps linearly to PA bias voltage; 5 MHz bandwidth suppresses switching noise from PA enable signals. | Use Scenario: Amplifying and level-shifting I/Q baseband signals before upconversion in 2.4 GHz WLAN transceivers. IC Role / Device Role / Timing Role: Single-supply, rail-to-rail gain block driving analog inputs of quadrature modulator ICs. Use Value: 200 mV beyond-rails input range accepts DC-coupled signals centered at 0.5 V; rail-to-rail output drives 600 Ω modulator inputs with <10 mV headroom loss. |
| Bluetooth Audio AGC Circuit | Temperature Compensation in RF Front-Ends |
Use Scenario: Implementing automatic gain control for audio paths in Bluetooth headsets using peak-detected envelope feedback. IC Role / Device Role / Timing Role: High-speed comparator-amplifier hybrid in rectifier + integrator loop; responds to fast envelope changes. Use Value: 5 V/µs slew rate tracks rapid amplitude variations in voice-band signals; low 0.4 mV offset prevents false triggering at low signal levels. | Use Scenario: Compensating thermal drift of power detector diodes or VCO tuning voltages in cellular front-end modules. IC Role / Device Role / Timing Role: Precision DC servo amplifier correcting temperature-dependent offset in RF calibration loops. Use Value: 4 pA input bias avoids loading high-value thermistor networks; 3 mV max offset ensures <0.1°C equivalent error in 10 kΩ bridge configurations. |
Equivalent & Alternatives
The following parts are listed as comparable options for similar op-amp applications.
| Alternative Part | Technical Difference | Application Difference | Selection Advice |
|---|---|---|---|
| LMV721IDBVR | Higher GBW (10 MHz), same 5-pin SOT-23, but higher supply current (1.25 mA vs 1.7 mA max) and no beyond-rails input. | Lacks 200 mV beyond-rails input range; unsuitable for ground-referenced sensor interfaces requiring sub-ground input. | Select when higher bandwidth is critical and input common-mode stays within rails. |
| TLV2461IDBVR | Lower quiescent current (550 µA), same RRIO, but lower output drive (±12 mA) and slower slew (0.6 V/µs). | Insufficient output current for direct PA bias control; requires buffer stage for >10 mA loads. | Select for ultra-low-power always-on monitoring where bandwidth <100 kHz suffices. |
Compared with LMV710IDBVR, LMV721IDBVR trades beyond-rails input for double bandwidth and tighter offset, while TLV2461IDBVR prioritizes micro-power operation at the expense of output drive and speed-making LMV710IDBVR optimal for RF bias control demanding both rail compliance and current delivery.
Availability
LMV710IDBVR is available at Aetrix Electronics and suitable for wireless handset design, RF front-end calibration, and portable instrumentation requiring stable component supply, consistent parametric performance across temperature, and long-term manufacturability in SOT-23-5 packaging.
Supply support for LMV710IDBVR includes scheduled delivery planning, volume procurement assistance, BOM continuity management, traceable sourcing, and lifecycle availability coordination for OEM customers, industrial embedded developers, connected-device designers, and electronics production programs.
Manufacturer
Texas Instruments is a global semiconductor leader specializing in analog, embedded processing, and digital signal technologies, with decades of expertise in precision amplifiers and low-power signal chains.
The LMV710IDBVR belongs to TI's LMV7xx low-voltage, high-output-current op-amp family, engineered specifically for battery-powered RF and wireless infrastructure applications demanding rail-to-rail operation and robust drive capability.
FAQ
Does LMV710IDBVR have a shutdown pin?
No, LMV710IDBVR does not include a shutdown pin. It is the 5-pin variant in the LMV710/LMV711/LMV715 family; only LMV711 (6-pin) and LMV715 (6-pin) feature a dedicated SHDN terminal. LMV710IDBVR operates continuously when powered and cannot be placed into low-current sleep mode. This simplifies PCB layout for always-on signal paths but precludes dynamic power gating.
What is the maximum capacitive load LMV710IDBVR can drive stably?
LMV710IDBVR maintains stability with capacitive loads up to 100 pF when configured as a unity-gain buffer, as confirmed by 60° phase margin in the datasheet. For loads exceeding 100 pF, an isolation resistor (≥10 Ω) between output and capacitance is recommended to preserve phase margin and prevent peaking or oscillation in precision applications like ADC drivers or filter stages.
Can LMV710IDBVR operate on a single 2.7 V supply?
Yes, LMV710IDBVR is fully specified for single 2.7 V operation. Its input common-mode range extends to –0.2 V (200 mV below ground) and its output swings within 12 mV of both rails into 10 kΩ, enabling true rail-to-rail functionality in low-voltage systems such as coin-cell-powered sensors or energy-harvesting nodes where supply headroom is constrained.
Is LMV710IDBVR pin-compatible with LMV711IDBVR?
No, LMV710IDBVR is not pin-compatible with LMV711IDBVR. LMV710IDBVR uses a 5-pin SOT-23 (DBV) package with pins: IN−, IN+, OUT, VCC−, VCC+. LMV711IDBVR uses a 6-pin SOT-23 package adding SHDN on pin 6. Direct substitution would require PCB redesign to accommodate the extra pin and associated pull-up/down network for shutdown control.
What is the input voltage noise density of LMV710IDBVR at 1 kHz?
The input-referred voltage noise density of LMV710IDBVR is 20 nV/√Hz at 1 kHz, as measured under standard conditions (VCC+ = 2.7 V, VIC = 1.35 V). This low noise performance supports high-fidelity signal amplification in RF detector circuits, precision thermistor interfaces, and low-level sensor front-ends where signal integrity at audio and sub-MHz frequencies is critical.
LMV710IDBVR Specifications
- Product attributes
- Attribute value
- Manufacturer:
- Texas Instruments
- Series:
- -
- Package/Case:
- SC-74A, SOT-753
- Packaging:
- Tape & Reel (TR)
- Product Status:
- Obsolete
- Amplifier Type:
- General Purpose
- Number of Circuits:
- 1
- Output Type:
- Rail-to-Rail
- Slew Rate:
- 5V/µs
- Gain Bandwidth Product:
- 5 MHz
- -3db Bandwidth:
- -
- Current - Input Bias:
- 4 pA
- Voltage - Input Offset:
- 400 µV
- Current - Supply:
- 1.17mA
- Current - Output / Channel:
- 40 mA
- Voltage - Supply Span (Min):
- 2.7 V
- Voltage - Supply Span (Max):
- 5.5 V
- Operating Temperature:
- -40°C ~ 85°C
- Grade:
- -
- Qualification:
- -
- Mounting Type:
- Surface Mount
- Supplier Device Package:
- SOT-23-5
LMV710IDBVR FAQ
1.How can I place an order for LMV710IDBVR through Aetrix?
Please submit a Request for Quotation (RFQ) for LMV710IDBVR on Aetrix. Our sales agent will provide a competitive quotation and guide you through the order confirmation once you accept the terms.
2.Are the price and stock information for LMV710IDBVR reliable?
The price and inventory of LMV710IDBVR are updated periodically and may fluctuate due to market conditions. Stock and pricing data are typically refreshed every 24 hours. Quotation validity for LMV710IDBVR is usually 5 days.
3.What payment methods are accepted for LMV710IDBVR?
We accept Wire Transfer, PayPal, Credit Card, Western Union, MoneyGram, and Escrow for LMV710IDBVR transactions.
Note: Certain payment methods may incur a processing fee.
4.How is shipping managed for LMV710IDBVR?
LMV710IDBVR orders can be shipped via leading logistics carriers, including DHL, UPS, FedEx, TNT, or Registered Mail.
Once your LMV710IDBVR order is processed, you will receive an email with the shipment details and tracking number.
Note: Tracking information may take up to 24 hours to appear. Express delivery typically takes 3–5 business days.
5.How can I obtain technical support or documentation for LMV710IDBVR?
For technical support, including LMV710IDBVR datasheets, pinout diagrams, or application guidance, please contact our engineering support team. They can provide detailed documentation and assistance for your LMV710IDBVR requirements.
6.How does Aetrix verify that LMV710IDBVR is sourced from the original manufacturer or authorized distributors?
All LMV710IDBVR products on Aetrix are procured from qualified distributors and authorized channels. Our dedicated quality assurance team conducts strict verification, including traceability checks and, if necessary, third-party testing. This ensures that LMV710IDBVR meets industry standards.
7.What is the process for return or replacement of LMV710IDBVR?
All LMV710IDBVR units undergo pre-shipment inspection (PSI). If there is an issue with LMV710IDBVR, returns or replacements are accepted under the following conditions:
1.Quantity discrepancies, incorrect items, or visible external defects (such as breakage or corrosion), acknowledged by Aetrix.
2.The issue is reported within 90 days of delivery.
3.The LMV710IDBVR part is unused and in its original packaging.
Return procedure for LMV710IDBVR:
1.Submit a request within 90 days.
2.Obtain a Return Material Authorization (RMA) from Aetrix.
LMV710IDBVR Tags
-
LM358DT
STMicroelectronics
-
LM358DR
Texas Instruments
-
LM2904DR
Texas Instruments
-
LM358ADR
Texas Instruments
-
LM2904DGKR
Texas Instruments
-
LM324DR
Texas Instruments
-
MCP6006T-E/OT
Microchip Technology
-
MCP6006UT-E/OT
Microchip Technology
-
LM324PWR
Texas Instruments
-
LM2902PWR
Texas Instruments
-
LM2902DR
Texas Instruments
-
LM358P
Texas Instruments
Tech Hub
A practical engineering guide to 3.3V and 5V logic compatibility, input thresholds, resistor dividers, translator ICs, MOSFET level shifting, I2C pull-ups, timing limits and power-sequencing risks.
The 74HC595 uses push-pull logic outputs, while the TPIC6B595 uses 50 V open-drain DMOS sinks for higher-power loads. This guide compares timing, current limits, 3.3 V interfacing, load wiring, thermal…
The 74HC595 converts serial data into eight stable parallel outputs. This guide covers pin functions, shift and storage timing, OE and MR behavior, drive-current limits, cascading, voltage compatibilit…
A technical comparison of level-sensitive latches and edge-triggered flip-flops, covering timing windows, setup and hold limits, master–slave operation, time borrowing, race-through, HDL inference and…
A D latch stores one bit while Enable controls when data can pass. This reference covers gate-level operation, truth tables, transparency, setup and hold timing, LE versus OE, common ICs and practical …
An SR latch stores one bit through cross-coupled feedback. This engineering reference covers NOR and NAND implementations, truth tables, forbidden-state recovery, gated operation, switch debouncing, fa…
Latch circuits retain one bit through feedback. This technical reference covers SR and D latches, truth tables, transparency, timing limits, latch-versus-flip-flop behavior, applications and common log…
An engineering guide to LED driver operation, constant-current and constant-voltage outputs, linear and switching topologies, dimming, IC selection, calculations, replacement compatibility, and fault c…
Operational amplifier guide covering op amp basics, feedback, ideal vs real op amps, common configurations, buffer circuits, offset, bias current, gain-bandwidth, slew rate, rail-to-rail limits and sel…
Jumper cables guide covering safe connection order, red and black clamp placement, final ground connection, cable gauge, length, clamp quality, copper vs CCA cables, jump starter comparison and battery…
