Texas Instruments brings you the latest in Analog

Texas Instruments brings you the latest products, services, and innovations.

In this article we will take a look at its Analog products.

Redefining battery accuracy: How the Dynamic Z-Track™ algorithm predicts unpredictable battery loads

As industrial and personal electronics add more advanced technologies, they create increasingly unpredictable loads on batteries, necessitating a more reliable and intelligent battery gauge.

Click here to learn how the Dynamic Z-Track™ algorithm predicts unpredictable battery loads.

The Hall effect: how an in-plane switch increases sensitivity and lowers design cost

Devices with smart magnetic position sensors – door and window sensors, electronic smart locks (shown in Figure 1), laptops, earbuds, tablets, smartphones, and water and gas meters – all depend on smaller, more power-efficient switches. Magnetic switches often need to detect magnetic fields parallel or horizontal to the printed circuit board (PCB), a type of sensing orientation called in-plane.

Learn how an in-plane switch increases sensitivity and lowers design cost here.

Uneven grounds? Address offset challenges with novel ground-level translators

As systems become more compact, efficient and modular, designers face new challenges managing communication across different voltage domains. A primary example is the rise of <100VDC architectures, including 48V systems in electrical vehicles (EVs), robotics and energy storage systems.

Learn more about novel ground-level translators in this technical article.

TI unveils the industry’s most sensitive in-plane Hall-effect switch, enabling lower design costs

Texas Instruments (TI) today introduced the industry’s most sensitive in-plane Hall-effect switch for position sensing, offering engineers a cost-effective, user-friendly alternative to magnetoresistive sensors. TI’s TMAG5134 Hall-effect switch features an integrated a magnetic concentrator, enabling it to detect magnetic fields as weak as 1mT in applications such as door and window sensors, personal electronics, home appliances, and more.

Learn about the most sensitive in-plane Hall-effect switch with TI.

Ground-level translators

Our ground-level translators enable seamless communication between systems with different ground voltages, ensuring reliable operation across various applications. Designed for efficiency, our solutions come in small-footprint packages that save board space and lower system costs while delivering high performance.

Take a look at the different ground-level translator offerings here.

Powering modern AI data centers with industry’s first integrated 48V integrated hot swap (eFuse)

As high-performance computing and artificial intelligence continue to grow, data centers demand power-dense, efficient solutions to support the latest central processing units, graphics processing units (GPUs) and hardware accelerators.

Read the technical article to learn more about powering modern AI data centers.

Not All Grounds Are 0V

Industrial and automotive systems are using mixed-voltage designs for power optimization, improved performance, and cost reduction. Integration of diverse power domains become a challenge due to unintended ground mismatch. This occurs when the ground reference voltage between domains deviates from the expected 0V reference, ranging from a few volts to tens of volts.

Read more about the key to reliable system performance in this application brief.

TPS1685 evaluation module

The TPS1685EVM is used to evaluate the performance of the TPS1685 eFuse device. The TPS1685EVM comes with two TPS16850 eFuses connected in parallel to evaluate a 54V (typical) and 40A (steady state) design.

Get to know the evaluation module here.

Data center & enterprise computing

Elevate your data center designs with our power-management solutions, which include multiphase controllers, power stages, point-of-load regulators and converters, and hot-swap controllers, along with clocks and timing, signal processing, and interface and connectivity solutions. Our products deliver performance, reliability and scalability to ensure seamless integration and future-proofing without sacrificing space or energy efficiency.

Elevate data center designs with power-management solutions here.

Ground-level translators

Our ground-level translators enable seamless communication between systems with different ground voltages, ensuring reliable operation across various applications. Designed for efficiency, our solutions come in small-footprint packages that save board space and lower system costs while delivering high performance.

Explore TI’s ground-level translators.

TXG1041: ±10V, 4-bit fixed direction ground level translator, 3/1 configuration

The TXG104x is a 4-bit, fixed direction, non-galvanic based voltage and ground-level translator that can support both logic-level shifting between 1.71V to 5.5V and ground-level shifting up to ±10V. Compared to traditional level shifters, the TXG104x family can solve the challenges of voltage translation across different ground levels.

See the TXG104x data sheet here for more information.

Battery fuel gauges

Accurate gauges for applications ranging from smartphones, notebooks and power tools to vacuums and energy storage systems (ESS). There are gauges equipped with integrated protection or for higher voltage applications up to 15 cells in series.

Read here for more about accurate gauging products for any battery system.

Dynamic Z-Track™ Technology: An Advanced Battery Gauging Algorithm for Dynamic Load Applications

This application note describes a short history of Texas Instruments’ battery gauging algorithms, explains challenges in battery gauge operation when load currents have frequent, rapid variations, and details the features and benefits of the Dynamic Z-Track™ algorithm applied to dynamic load current applications.

Learn more about Z-Track™ Technology here.

INA188: 36-V, Zero-Drift, Rail-to-Rail-Out Instrumentation Amplifier

The INA188 is a precision instrumentation amplifier that uses TI proprietary auto-zeroing techniques to achieve low offset voltage, near-zero offset and gain drift, excellent linearity, and exceptionally low-noise density (12 nV/√Hz) that extends down to dc.

Read more about 36-V, Zero-Drift, Rail-to-Rail-Out Instrumentation Amplifier here.

ADS131M08: 24-bit, 32-kSPS, 8-channel, simultaneous-sampling, delta-sigma ADC

The ADS131M08 is a eight-channel, simultaneously-sampling, 24-bit, delta-sigma (ΔΣ), analog-to-digital converter (ADC) that offers wide dynamic range, low power, and energy-measurement-specific features, making the device an excellent fit for energy metering, power metrology, and circuit breaker applications. The ADC inputs can be directly interfaced to a resistor-divider network or a power transformer to measure voltage or to a current transformer or a Rogowski coil to measure current.

Find out more here.

LM5066I: 10-V to 80-V hot swap controller with improved current, voltage and power monitoring accuracy

LM5066I provides robust protection and precision monitoring for 10- to 80-V systems. Programmable UV, OV, ILIMIT, and fast-short circuit protection allow for customized protection for any application. Programmable FET SOA protection sets the maximum power the FET is allowed to dissipate under any condition. The programmable fault timer (tFAULT) is set to avoid nuisance trips, ensure start-up, and limit the duration of over load events.

Click here to learn more.

Educational resources

Click here to explore our centralized hub of analog and embedded design resources, expert-written content and comprehensive trainings.

ADC3669: 16-bit two-channel 500MSPS ADC with LVDS interface and up to 32768x decimation

The ADC3668 and ADC3669 (ADC366x) are a 16-bit, 250MSPS and 500MSPS, dual channel analog to digital converters (ADC). The devices are designed for high signal-to-noise ratio (SNR) and deliver a noise spectral density of −160dBFS/Hz (500MSPS).

Learn more by following the link.

ADC3668: 16-bit two-channel 250MSPS ADC with LVDS interface and up to 32768x decimation

The ADC3668 and ADC3669 (ADC366x) are a 16-bit, 250MSPS and 500MSPS, dual channel analog to digital converters (ADC). The devices are designed for high signal-to-noise ratio (SNR) and deliver a noise spectral density of −160dBFS/Hz (500MSPS).

To find out more, click here.

PSDS 2025 Virtual | Session 3: Power Factor Correction (PFC) circuit basics (8 AM CST)

From laptop adapters to power tools, any application powered from the AC grid represents a complex load where the input current is not always in phase with the instantaneous line voltage. As such, the application consumes both real power as well as reactive power from the grid. The ratio between real, usable power (measured in watts) and the total real-plus-reactive power is known as the power factor. A power factor correction (PFC) circuit intentionally shapes the input current to be in phase with the instantaneous line voltage and minimizes the total apparent power consumed.

This webinar series will be in English only and will include a live Q&A.

ADC128S102-SEP: Radiation-tolerant, eight-channel, 50-kSPS to 1-MSPS, 12-bit analog-to-digital converter (ADC)

The ADC128S102-SEP is a low-power, eight-channel, CMOS, 12-bit analog-to-digital converter (ADC) specified for conversion throughput rates of 50 kSPS to 1 MSPS. The converter is based on a successive-approximation register (SAR) architecture with an internal track-and-hold circuit. The device can be configured to accept up to eight input signals at inputs IN0 through IN7.

To learn more about Radiation-tolerant, eight-channel, 50-kSPS to 1-MSPS, 12-bit analog-to-digital converter (ADC), click here.

ADC168M102R-SEP: Radiation-tolerant, 8-channel, 1MSPS, 16-bit, simultaneous-sampling SAR ADC

The ADC168M102R-SEP is a dual, 16-bit, 1MSPS analog-to-digital converter (ADC). This ADC has eight pseudo- or four fully differential input channels grouped into two pairs for simultaneous signal acquisition. The analog inputs are maintained differentially to the input of the ADC. Use the input multiplexer in either pseudo-differential mode or fully differential mode.

Find out more here.

TPS7H2221-SEP: Radiation-tolerant 1.6-V to 5.5-V input 1.25-A load switch

The TPS7H2221-SEP device is a small, single channel load switch with controlled slew rate. The device contains an N-channel MOSFET that can operate over an input voltage range of 1.6 V to 5.5 V and can support a maximum continuous current of 1.25 A.

Find out more about the TPS7H2221-SEP by clicking here.

BQ41Z9

Three to 16 series Li-ion highly integrated battery fuel gauge, monitor and protector.

The Texas Instruments BQ41Z90 is a fully integrated pack-based battery pack manager solution, that provides a flash programmable CPU, safety protection, and elliptical curve cryptography (ECC) authentication for 3 to 16 cells in series Li-ion, LiFeP4, NiMH, and Li-polymer battery packs.

Click here to find out more about the BQ41Z90 battery pack manager solution.

TMAG5134

Low-tolerance high-sensitivity in-plane Hall-effect switch.

The TMAG5134 is a high sensitivity, low power, in-plane hall effect digital switch designed to replace TMR, AMR and Reed switches. The TMAG5134 features an integrated magnetic concentrator to achieve higher sensitivity and lower power consumption than traditional hall effect devices.

Find out what the TMAG5134 offers here.

LMG2100R026

The LMG2100R026 device is a 93V continuous, 100V pulsed, 53A half-bridge power stage, with integrated gate-driver and enhancement-mode Gallium Nitride (GaN) FETs. The device consists of two GaN FETs driven by one high-frequency GaN FET driver in a half-bridge configuration.

Find out more about the 100V 2.6mΩ half-bridge gallium nitride (GaN) power stage here.

LMG2100R044

The LMG2100R044 device is a 90V continuous, 100V pulsed, 35A half-bridge power stage, with integrated gate-driver and enhancement-mode Gallium Nitride (GaN) FETs. The device consists of two 100V GaN FETs driven by one high-frequency 90V GaN FET driver in a half-bridge configuration.

Find out more about the 100-V 4.4-mΩ half-bridge GaN FET with integrated driver and protection here.

LMG3100R017

The LMG3100 device is a 100V continuous, 120V pulsed Gallium Nitride (GaN) FET with integrated driver. Device is offered in two Rds(on) and max current variants, 126A/1.7mΩ for LMG3100R017 and 46A/4.4mΩ for LMG3100R044. The device consists of a 100V GaN FET driven by a high-frequency GaN FET driver. The LMG3100 incorporates a high side level shifter and bootstrap circuit, so that two LMG3100 devices can be used to form a half bridge without an additional level shifter.

Follow the link to learn more about the 100V 1.7mΩ GaN FET with integrated driver.

LMG3522R050

The LMG352xR050 GaN FET with integrated driver and protection is targeted at switch-mode power converters and enables designers to achieve new levels of power density and efficiency.

The LMG352xR050 integrates a silicon driver that enables switching speed up to 150V/ns. TI’s integrated precision gate bias results in higher switching SOA compared to discrete silicon gate drivers.

Find out more about 650-V 50-mΩ GaN FET with integrated driver, protection and temperature reporting here.

LMG3422R030

The LMG342xR030 GaN FET with integrated driver and protection is targeted at switch-mode power converters and enables designers to achieve new levels of power density and efficiency.

The LMG342xR030 integrates a silicon driver that enables switching speed up to 150V/ns. TI’s integrated precision gate bias results in higher switching SOA compared to discrete silicon gate drivers.

Get to know more about 600-V 30-mΩ GaN FET with integrated driver, protection and temperature reporting here.

Designing Space Systems With Integrated FDIR: A Guide to TI’s Space-Grade Components

In space, maintenance and repair are not an option. Once deployed, satellite systems must operate reliably throughout their intended mission duration without physical intervention. This makes the use of fault detection, isolation, and recovery (FDIR) strategies a fundamental design requirement for all satellite subsystems.

Read the technical white paper on designing space systems with integrated FDIR here.

Benefits of Using Functional Safety in Space Applications

According to IEC61508, functional safety is relevant whenever a product or system contains electrical, electronic or programmable electronic elements that perform safety-critical functions. It is used in many areas of technology such as, the process (for example, energy sector), automotive (transport sector), mechanical engineering and aviation industries.

What are the benefits of using functional safety in space applications, read the technical white paper to find out more.

Space Power Supply for the STAR-Tiger SpaceFibre Routing Switch

Modern space-rated Field Programmable Gate Arrays (FPGAs) have enabled entirely new system architectures and increased data throughput. These advances in FPGAs require technology to be able to support data-handling applications at high data rates.

This paper discusses in detail the power-supply design for the STAR-Tiger SpaceFibre routing switch, read more here.

ADC128S102-SEP: Radiation-tolerant, eight-channel, 50-kSPS to 1-MSPS, 12-bit analog-to-digital converter (ADC)

The ADC128S102-SEP is a low-power, eight-channel, CMOS, 12-bit analog-to-digital converter (ADC) specified for conversion throughput rates of 50 kSPS to 1 MSPS. The converter is based on a successive-approximation register (SAR) architecture with an internal track-and-hold circuit.

Find out more about ADC here.

Inside Tomorrow’s SDVs: Integrating Remote-Controlled Edge Nodes

Automotive in-vehicle networking is evolving to support new features in software-defined vehicles (SDVs). As software consolidates into fewer electronic control units (ECUs) to increase scalability across vehicle platforms and streamline over-the-air (OTA) updates, a new remote-controlled edge concept optimizes wiring while enabling scalable edge-node software.

Here you can learn more about remote controlled edge nodes and how they can transform automotive networks.

Software-Defined Vehicles Shift the Future of Automotive Electronics Into Gear

Automotive original equipment manufacturers (OEMs) are continuously working to improve the occupant experience, simplify over-the-air updates, reduce design and manufacturing costs, collect more vehicle data, and create new revenue streams. However, today’s domain-based vehicle architectures are not equipped to easily and effectively meet these needs, leading to a shift toward software-defined vehicles and zone architectures. By centralizing software and decoupling hardware from software, software-defined vehicles are the next step in the development of smarter, safer and more energy-efficient vehicles.

Learn more about how SDVs with zone architectures are enabling development of smarter, safer, and more energy-efficient vehicles.

Automotive 65V sync boost controller 2A synch CC buck and stepper motor trapezoidal motion control

The TPS92544-Q1 device contains a synchronous BOOST controller and a monolithic synchronous buck LED driver with a wide 4.5V to 65V operating BUCK input voltage range.

The synchronous BOOST controller implements a peak current-mode controller to operate in constant voltage mode. The output voltage can be programmed using a programmable 8-bit DAC.

Learn more here.

Automotive 48V 2.5A bipolar stepper motor driver with integrated current sensing and stall detection

The DRV8434-Q1 is a stepper motor driver for automotive applications. The device is fully integrated with two N-channel power MOSFET H-bridge drivers, a microstepping indexer, and integrated current sensing. The DRV8434-Q1 is capable of driving up to 2.5A full-scale output current (dependent on PCB thermal design).

Click here to read more.

TPS7H2201-SP

The TPS7H2201 is a single channel eFuse that provides configurable rise time to minimize inrush current and reverse current protection. The device contains a P-channel MOSFET that can operate over an input voltage range of 1.5V to 7V and can support a maximum continuous current of 6A. The switch is controlled by an on and off input (EN), which is capable of interfacing directly with low-voltage control signals.

Read more on Radiation-hardened, QMLV and QMLP 1.5-V to 7-V input 6-A eFuse here.

TLV1H103-SEP

The TLV1H103-SEP is a 325MHz, high speed comparator with rail-to-rail inputs and a propagation delay of 2.5ns. The combination of fast response and wide operating voltage range make the comparator an excellent choice for narrow signal pulse detection and data and clock recovery applications in radar imaging and communications payload systems.

Learn more about Radiation-tolerant 2.5ns single-channel comparator with push-pull outputs here.

TMS570LC4357-SE

The TMS570LC4357-SEP device is part of the Hercules TMS570 series of high-performance automotive-grade Arm® Cortex®-R-based MCUs. Comprehensive documentation, tools, and software are available to assist in the development of ISO 26262 and IEC 61508 functional safety applications. Start evaluating today with the Hercules TMS570LC43x LaunchPad Development Kit. The TMS570LC4357-SEP device has on-chip diagnostic features including: dual CPUs in lockstep, Built-In Self-Test (BIST) logic for CPU, the N2HET coprocessors, and for on-chip SRAMs; ECC protection on the L1 caches, L2 flash, and SRAM memories.

Click here for more information about Space-enhanced product Hercules™ microcontroller based on Arm® Cortex®-R core.

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Texas Instruments brings you the latest in embedded systems

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