被動和離散
Explore our portfolio of passive and discrete components proven in reliability and performance
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Simplify your design process with our leading-edge discrete technology
Reliably protect your system from ESD and surge events
Our portfolio of electrostatic discharge (ESD), transient voltage suppressor (TVS) and Zener diodes includes multiple package and voltage options.
Benefits:
- <0.5pF ESD diodes protect data lines with speeds up to 30GHz, ensuring signal integrity during normal operation.
- Flat-clamp TVS technology provides a reliable solution for dissipating surge transients with a precise, flat, temperature-independent clamping voltage that minimizes residual voltage to the protected system.
- Automotive-grade devices in the portfolio meet stringent standards for systems requiring up to 30kV protection.
Capacitance Requirements for High Speed Signals (Rev. A)
System-Level ESD Protection Guide (Rev. D)
Flat-Clamp surge protection technology for efficient system protection
Enable high-performance circuitry with thin-film SiCr resistor networks
Our thin-film Silicon-chromium resistor networks use interdigitation techniques to achieve high element-to-element matching, with resilience to aging and temperature stresses.
Benefits:
- Thin-film SiCr enables a high degree of interdigitation in small form factors while providing lower flicker noise than thick-film solutions.
- On-chip interdigitation effectively allows multiple resistors to occupy the same location on the wafer, ensuring that any variation in thin-film resistive material on the wafer affects all resistors equally.
- Matched resistors achieve extremely low ratiometric temperature coefficients, with typical drift of 0.2ppm/°C or less.
整合式電阻分壓器如何提升 EV 電池系統性能
Optimizing CMRR in Differential Amplifier Circuits With Precision Matched Resist
Navigating Precision Resistor Networks
Enable low-noise, high-impedance sensor and audio circuitry with Burr-Brown™ JFETs
Discrete junction field-effect transistors (JFETs) can achieve much lower noise with comparatively lower power consumption than integrated amplifiers, making them an excellent choice for inductive-type sensors, which may require amplifiers with both low voltage and low current noise.
Benefits:
- Extremely low levels of broadband voltage noise similar to bipolar junction transistors but with the added benefit of extremely low current noise.
- Single-channel flexibility and dual-channel matching options.
- A pair of JFETs fabricated monolithically on the same die will match each other far better than individual transistors, preventing the introduction of DC offsets in high-gain circuits.
Ultra-Low-Noise JFET Preamplifier Design for High Impedance Sensors
Trade-offs Between CMOS, JFET, and Bipolar Input Stage Technology
JFE2140 Ultra-Low-Noise Pre-Amplifier
Achieve accurate thermal monitoring while reducing system complexity
Linear silicon-based thermistors maintain high sensitivity across temperature, enhancing performance and reliability.
Benefits:
- Eliminate linearization circuitry or hardware-based resistor-capacitor filters.
- Execute faster and more accurate software conversions than negative temperature coefficient (NTC) thermistors while reducing memory requirements.
- Achieve up to 50% higher accuracy than NTC thermistors without multipoint calibration.
- Enable almost 300% faster response times and greater sensitivity at higher temperatures because of lower thermal mass.
- Portfolio includes TI Functional Safety-Capable devices and failure-in-time rate/failure mode distribution documentation.
- Low self-heating minimizes long-term sensor drift.
NTC Thermistor to TMP6 Linear Thermistor Replacement Guide
Achieve ±1°C Accuracy or Better Across Temp. W/Low-Cost TMP6x Linear Thermistors
TMP6 Thermistor design tool
Harness the benefits of BAW technology in our oscillators
Bulk acoustic wave (BAW) resonators offer many improvements over existing quartz and micro-electro mechanical resonator technologies. Our portfolio includes oscillators with frequencies from 1MHz to 400MHz, industry-standard packages, low power consumption and a wide supply voltage range.
Benefits:
- BAW-based crystal oscillators offer great reliability including vibration and shock, mean time between failures (MTBF), temperature stability, aging, and environmental factors.
- Achieves less than 100fs of root-mean-square jitter.
- Replacing quartz oscillators with BAW oscillators does not require any design or printed circuit board layout changes.