YURUNOX · Texas Instruments product guide
What Does Texas Instruments Manufacture? Product Selection Guide
Texas Instruments primarily manufactures analog and embedded semiconductors: power-management ICs, amplifiers, data converters, interfaces, isolation, logic, sensors, motor drivers, microcontrollers, processors, DSPs, wireless devices, mmWave radar and DLP chipsets. It also sells education technology such as calculators. For buying, the category is only the starting point; the full orderable part number, package, rating, lifecycle and source evidence control approval.
Answer first
Which TI Product Category Fits Your Circuit Function?
| Your design need | Start in this TI area | Evidence required before approval | Stop or widen the search when… |
|---|---|---|---|
| Convert, sequence or protect power | Power management: DC/DC, LDO, PMIC, gate driver, protection or reference | Input/output range, current, topology, efficiency, thermal derating, EMI and protection behavior | The guaranteed operating limits or thermal path miss the real load profile |
| Measure or condition a physical signal | Amplifier, comparator, ADC/DAC, sensor or analog front end | Signal range, accuracy budget, bandwidth, noise, reference, drift and test conditions | A typical graph is the only support for a required min/max result |
| Move data between circuits or across a cable | Interface, isolation, logic translation, switch/multiplexer or wireless connectivity | Protocol revision, voltage levels, data rate, cable/load, isolation, EMC and software stack | The part name matches the protocol but the physical-layer or safety conditions do not |
| Run firmware, control loops or Linux | MCU, real-time controller, microprocessor, DSP or application-specific SoC | Core, memory, peripherals, latency, security/safety, package, toolchain and software support | The silicon fits but the required SDK, security path or lifecycle support is missing |
| Control light with microscopic mirrors | DLP DMD plus its compatible controller and driver | Chipset pairing, illumination wavelength, optics, thermal design, firmware and calibration | A DMD is being treated as a complete projector or optical engine |
TI makes far more than calculators
Its core is analog and embedded semiconductors used throughout industrial, automotive, personal-electronics, communications and enterprise systems.
TI makes “sensors” and “processors”
Yes within defined portfolios. A sensor IC may include the sensing element or only condition an external transducer; TI processors target embedded systems, not every CPU market.
A TI family name is not a purchase specification
Never release a BOM from “MSP430,” “C2000” or “TPS” alone. The complete orderable part number controls package, carrier, rating and other commercial fields.
Catalog scale is for discovery, not approval. TI currently states that it offers more than 80,000 products. That breadth is useful for finding candidates, but the current product page, data sheet and exact orderable-part record remain the technical authority.
Functional portfolio map
What Are the Main Texas Instruments Product Categories?
TI's public catalog is organized around functions. One end product normally needs several groups at once: power for every rail, signal-chain devices for the real world, interfaces for communication, embedded processing for decisions, and sometimes DLP for light control.
Convert and protect
DC/DC, LDO, PMIC, gate driver, power stage, supervisor, load switch and voltage reference.
Sense and convert
Amplifier, comparator, ADC, DAC, clock, audio device, sensor and analog front end.
Move signals
CAN, LIN, Ethernet, USB, RS-485, SerDes, isolation, logic translation and wireless.
Run control and software
General-purpose and real-time MCUs, MPUs, DSPs and application-specific SoCs.
Modulate or teach
DLP DMDs, controllers and drivers; separately, calculators, software and classroom tools.
A prefix is not a category guarantee. Prefixes can remain in use across generations and product types. Similar-looking names do not prove pin compatibility, functional equivalence or a safe alternate.
TI's largest functional territory
Which TI Analog Products Match Power and Signal-Chain Needs?
An analog device handles continuous quantities such as voltage, current, temperature, sound or light. Even a digital product needs analog functions to power its processor, receive a sensor signal, drive a load, communicate over a cable and survive abnormal electrical events.
| Category | Main job | Selection variables | Common buying mistake |
|---|---|---|---|
| DC/DC converter or controller | Change one DC voltage into another | Topology, input/output range, current, frequency, efficiency, transient response, EMI and thermals | Matching voltage only while ignoring load profile, compensation or external parts |
| LDO | Provide linear regulation | Dropout, current, dissipation, stability, output capacitor, PSRR and noise | Assuming low noise also means low heat at a large voltage drop |
| Op amp or current-sense amplifier | Condition a voltage or current-derived signal | Common-mode range, output swing, bandwidth, offset, drift, noise and stability | Using supply voltage and pin count as the whole compatibility test |
| ADC or DAC | Convert between analog and digital domains | Resolution, effective performance, sample/update rate, reference, linearity, noise, latency and interface | Selecting an ADC from bit count alone |
| Interface or isolator | Implement a physical link or cross an insulation barrier | Protocol, speed, bus voltage, cable, fault protection, working voltage, CMTI, creepage and certification | Assuming the words “CAN” or “isolated” prove system compliance |
| Sensor or analog front end | Detect a physical quantity or condition an external transducer | Measurement principle, range, accuracy, response time, environment, calibration and interface | Treating every sensing IC as a complete sensor module |
More integration is not automatically better
A PMIC or power module can reduce part count and design time, while a controller plus external FETs can provide different voltage, current or thermal flexibility. Compare the whole power tree, not the IC price alone.
Conditions give specifications meaning
Guaranteed limits, temperature range, supply, source impedance, output load and bandwidth must match the application. Typical performance plots are informative but do not replace guaranteed limits.
Embedded control and processing
How Do TI MCUs, Processors, DSPs, and Wireless Devices Differ?
Choose an MCU when deterministic control, integrated flash, timers, ADCs, GPIO and low power matter more than a rich operating system. Low-power MSP430-class work, cost-optimized general control and real-time motor/digital-power control have different priorities.
Choose an MPU or application processor when Linux or Android, external memory, high-level networking, display, multimedia or edge workloads are central. The external-memory design, boot chain, security updates and operating-system support become part of the component decision.
Choose a DSP or specialized SoC when predictable, high-throughput signal processing, accelerators or application-specific networking/vision functions dominate. Algorithm mapping and memory bandwidth matter as much as headline compute.
| Need | Likely category | Evidence to capture | Stop boundary |
|---|---|---|---|
| Battery sensing or simple control | Low-power or general-purpose MCU | Active/standby current under the actual clock and peripheral profile, wake time, memory retention and package | Power budget depends on an unused lab mode that the real firmware cannot maintain |
| Motor control or digital power | Real-time control MCU | PWM/ADC timing, interrupt latency, math support, safety needs and control libraries | Worst-case loop timing or fault response misses the control requirement |
| Linux HMI or gateway | Microprocessor or multimedia/networking SoC | OS release, boot chain, external memory, display/network interfaces, security and thermal design | The needed BSP, driver or long-term software maintenance path is unavailable |
| Bluetooth, Wi-Fi or Sub-1 GHz endpoint | Wireless MCU or connectivity device | Protocol/version, RF performance, stack, antenna layout, coexistence and regional certification plan | A “wireless chip” is being approved without an RF and certification design |
TI processors are embedded products. Do not infer that TI competes in every CPU or GPU market. The current catalog is centered on embedded control and application-specific processing rather than general-purpose desktop or server processors.
Specialized product lines
Does Texas Instruments Make DLP Chipsets and Calculators?
TI's DLP technology uses a digital micromirror device (DMD) to modulate light. The current catalog includes DMDs, controllers and drivers for display, projection, automotive and industrial uses such as structured light, machine vision, spectroscopy and 3D printing.
TI also continues to sell graphing, scientific, financial and basic calculators, plus software, online tools, connectivity products and classroom accessories. These are real TI products, but they are separate from the company's core analog and embedded semiconductor portfolio.
Evaluation modules, reference designs, SDKs and configuration tools are another important offering. An EVM helps evaluate an IC; it is not normally the production component. Record the EVM number and the silicon orderable part number separately.
From design to finished device
Does Texas Instruments Manufacture Its Own Chips?
TI is an integrated semiconductor manufacturer. Its current manufacturing page says it operates 15 worldwide manufacturing sites, including wafer fabs, assembly/test factories and bump/probe facilities. TI is investing in 300 mm wafer fabs and says its internal wafer and assembly/test operations are growing to support more than 95% of production by 2030.
What Does 300 mm Wafer Manufacturing Change?
A 300 mm wafer can hold more dies than a smaller wafer, which supports high-volume efficiency. TI's strategy concentrates on foundational process technologies used by analog and embedded products rather than assuming every competitive advantage requires the smallest process node.
What Does TI's Corporate Footprint Not Prove?
A company-level site list does not identify the fab, assembly site, test site or country of origin for a particular shipment. The exact label, lot trace, certificate and current manufacturer documentation control when origin or site matters.
Stop unsupported origin claims. A wafer can be fabricated in one location and assembled or tested in another. Do not convert “TI has U.S. fabs” into “this reel is fully U.S.-made” without lot- and shipment-specific evidence.
Where the products fit
Which Markets Use TI Products—and What Does TI Not Supply?
| Application market | Common TI functions | Buyer or design emphasis |
|---|---|---|
| Industrial | Sensor interface, isolation, industrial communications, MCU/processor, motor control and power | EMC, isolation, deterministic timing, temperature, longevity and serviceability |
| Automotive | Power, sensing, radar, interface, motor driver, MCU/SoC and DLP | Automotive qualification where required, functional safety, PPAP, traceability and change control |
| Personal electronics | Battery management, audio, sensors, display support, interface and wireless | Size, power, cost, integration, software and fast product cycles |
| Communications equipment | Data converters, clocks, RF, interface, processors and power | Bandwidth, jitter, synchronization, signal integrity, thermal design and availability |
| Enterprise systems | Power conversion, monitoring, clocks, interface and embedded management | Efficiency, power density, telemetry, thermal behavior, reliability and continuity |
Which Products Are Outside TI's Core Catalog?
Based on TI's current public product catalog, do not treat it as a broad supplier of commodity DRAM or NAND flash, desktop/server CPUs, standalone high-end graphics processors, connectors, passive components, finished vehicles or complete industrial machines. TI may provide the PMIC around another company's processor or the interface around a memory subsystem; that does not make the processor or memory a TI product.
Also avoid the foundry shortcut. TI lists die and wafer services, but this does not establish a general merchant-foundry service for arbitrary third-party chip designs. Confirm the exact commercial offering, quality flow and supply format directly with TI.
Part-level evidence
How Do You Verify a TI Part Before Design or Purchase Approval?
Category pages and parametric filters narrow a search. Approval should use guaranteed specifications from the current data sheet, then application testing under documented conditions. The table below makes the method, units and failure boundaries explicit.
| Claim | Method and units | Conditions and sample basis | Pass/fail boundary |
|---|---|---|---|
| Power rail remains in regulation | Measure output voltage in V or mV, ripple in mV peak-to-peak, efficiency in %, and temperature in °C | Min/nom/max input; defined static and transient loads; real layout, airflow and ambient. Select samples by claim, lot structure and consequence of escape. | Pass only when application limits and data-sheet operating limits are both met; fail on thermal, protection, startup or transient escape |
| Signal chain meets accuracy | Measure offset/drift in µV or mV, noise in µV RMS, INL in LSB, SNR/ENOB in dB or bits as applicable | Defined supply, source impedance, reference, bandwidth, sample rate, load and temperature | Pass against the written system error budget and guaranteed limits; fail if support depends only on typical data |
| Wired interface survives the real link | Bit rate in kbps/Mbps, bus voltage in V, error rate, eye/timing margin and EMC results under the chosen standard | Specified cable length/type, node count, termination, common-mode voltage, temperature and injected disturbances | Pass only at the required worst-case link; fail on protocol revision, voltage, fault protection or EMC mismatch |
| Isolation meets the safety design | Review working voltage in Vrms/Vdc, transient rating, creepage/clearance in mm, CMTI in kV/µs and required certification | System standard, pollution degree, material group, altitude, lifetime, repetitive waveform and PCB geometry | Fail if insulation coordination or system certification cannot be supported—even when the device is marketed as isolated |
| Embedded device runs the real workload | Measure loop/interrupt latency in µs, memory in bytes, current in µA/mA, boot time and thermal margin | Production-intent firmware, clock tree, peripherals, compiler options, security settings, temperature and load | Fail when worst-case timing, memory, power, safety/security or software-maintenance needs are not met |
No universal sample count exists. Sample size depends on the claim, confidence objective, lot structure, variability, destructive testing and consequence of escape. Write the sample identity, lot/date-code grouping, method, conditions and acceptance limit before generating data.
Which Eight Checks Must the Exact Orderable Part Number Close?
- Function and guaranteed electrical limits
- Package, pin count and PCB footprint
- Temperature and qualification grade
- Carrier, standard pack quantity and MSL
- Current lifecycle status and PCN/PDN path
- Software, tools and reference-design support
- Source, label, lot and traceability evidence
- Application-level validation and release authority
Documented public evidence
What Do TI's Sherman Fab and Customer Examples Actually Prove?
Sherman SM1 moved from construction to customer shipments
TI reported that customers were receiving chips from its new 300 mm fab in Sherman, Texas, and that analog power products were among the first devices produced there. TI said the fab would ramp with demand and later support products across its broader portfolio.
- What it proves
- TI has operating internal 300 mm capacity at SM1 and publicly identified early output as analog power products.
- What it does not prove
- It does not prove that any quoted MPN or delivered lot came from SM1.
- Buyer action
- Use this for supplier-footprint context; use shipment labels, certificates and lot records for an exact-origin requirement.
One supplier portfolio can support very different end systems
In a TI manufacturing announcement, Medtronic described TI semiconductors as important to supply continuity and medical-technology development, while SpaceX described using TI's 300 mm SiGe technology for Starlink connectivity. The examples show the range of applications, not that one generic TI chip suits both.
- Evidence type
- Named statements published in a TI news release; this article does not present them as independently audited performance results.
- Decision lesson
- Market credibility does not select a component. Each MPN still needs application-specific electrical, qualification, lifecycle and supply evidence.
- Stop boundary
- Do not turn a customer name or market example into approval for a different part, lot or use condition.
Interactive starting point
Which TI category should you search first?
This tool suggests a catalog starting point and the evidence that should control the next decision. It does not recommend an MPN or replace the current TI data sheet.
Begin with DC/DC converters/controllers, LDOs, PMICs, power modules, gate drivers, power stages, protection switches, supervisors or voltage references.
Verify: topology; input/output range; current; efficiency; transient response; thermals; EMI; protection; exact package and rating. Stop if: guaranteed limits or the real thermal/layout conditions do not meet the requirement.
Procurement workflow
What Should Buyers Verify Before Approving a TI BOM Line?
- Freeze the function and boundary conditions. Record voltage, current, signal range, speed, accuracy, load, protocol, temperature, safety, software and lifetime needs.
- Build candidates with TI's category and parametric tools. Open the current product page and data sheet for every surviving candidate.
- Read guaranteed specifications under the relevant conditions. Do not promote typical graphs into min/max guarantees.
- Confirm the full orderable part number. Verify package, pin count, carrier, quantity, temperature, qualification, marking, MSL and material fields.
- Check lifecycle and change control. TI publishes Preview, Active, NRND, Last Time Buy and Obsolete states; they are not equivalent for a new design.
- Review ecosystem and qualification evidence. Include software, tools, safety/quality records, PCN/PDN monitoring and actual application testing.
- Define the source path. TI recommends direct or authorized sources and states that products bought outside its authorized network may not receive TI warranty or support.
Independent-market stock needs a separate risk decision. If authorized supply is unavailable, do not present independent stock as TI-authorized. Document source identity, physical-stock ownership, traceability, storage/handling evidence, inspection/test scope, warranty, remedies and the consequence of escape.
| Field | What to send | Why it changes the answer |
|---|---|---|
| Identity | Texas Instruments plus the complete MPN/orderable part number and approved alternates | Prevents family-level, package or grade substitutions |
| Technical use | Application, criticality, voltage/current/signal/protocol, temperature, safety and qualification requirements | Defines whether an electrical match is actually suitable |
| Documents | Required data-sheet revision, qualification/quality documents, CoC, label photos, date/lot code and traceability | Defines the evidence package before money or time is committed |
| Supply | Quantity, need date, destination, acceptable split lots, packaging and shelf-life constraints | Separates a technical match from usable delivery |
| Commercial controls | Target price, source permissions, inspection/test approval, payment limits and NCNR acceptance authority | Prevents a fast quote from bypassing the organization's risk controls |
Ask for an evidence-ready review
Send the exact TI requirement—not only “Texas Instruments products”
Include manufacturer and full MPN, data-sheet revision, quantity, need date, destination, application and criticality, electrical/environmental conditions, qualification, date/lot/traceability needs, approved alternates, photos/documents, source permissions, payment limits and NCNR constraints. YURUNOX is an independent electronic-component sourcing and distribution partner; TI remains the authority for TI technical data and authorized-channel status.
Source trail
Primary technical sources used for this product-selection guide
Sources were reviewed on 5 September 2026. Product counts, catalog categories, manufacturing sites, lifecycle states and channel lists can change; reopen the current page and exact orderable-part record before publication, design release or purchase.
- Texas Instruments — About TI: company scope, portfolio scale and current company facts.
- Texas Instruments — Product category overview: current functional catalog and application markets.
- Texas Instruments — Microcontrollers and processors: current embedded portfolio and development context.
- Texas Instruments — Sensors: sensor and specialty sensing categories.
- Texas Instruments — DLP products: DMD, controller and driver scope.
- TI Education Technology — Products: current calculator, software and accessory categories.
- Texas Instruments — Worldwide manufacturing: sites, 300 mm fabs and internal-manufacturing strategy.
- Texas Instruments — Product life cycle: longevity and lifecycle context.
- Texas Instruments — Authorized distributors: TI's current purchasing, warranty and support position.
- Texas Instruments — SM1 first production: documented Sherman manufacturing case.
- Texas Instruments — 2025 U.S. manufacturing announcement: named application/customer context.
YURUNOX is an independent electronic-component sourcing and distribution partner. This page is an educational selection aid, does not claim TI authorization, and does not replace TI data sheets, safety analysis, qualification, legal terms or application validation.