Infineon

TLE6250GXUMA1 - 1 MBd CAN Transceiver | Infineon

MPN: TLE6250GXUMA1 ✗ Tapus ng Buhay
4.5 V to 5.5 V Vdss PG-DSO-8, 8 pins Package
MOQ: 1 |

TLE6250GXUMA1 Ulas

The Infineon Technologies TLE6250GXUMA1 is a 1 MBd high-speed CAN transceiver designed for automotive and industrial differential data links, supplied in an 8-pin PG-DSO-8 surface-mount package. The device operates from a 4.5 V to 5.5 V supply, supports CANbus communication in accordance with ISO 11898, and is specified for an operating temperature range of -40 °C to 160 °C. Its 1/1 transmitter-and-receiver arrangement provides a complete interface between a CAN controller and a differential CAN bus.

A CAN transceiver, also called a CAN interface IC, converts logic-level TXD and RXD signals into a differential CAN_H and CAN_L bus signal. It belongs to the broader CAN interface transceiver class, where a controller handles frame generation, arbitration, acknowledgments, and protocol timing while the transceiver handles physical-layer signaling, bus protection, and receiver hysteresis. ISO 11898 compatibility places the TLE6250GXUMA1 within standardized high-speed CAN physical-layer systems used across vehicle networks and industrial automation equipment.

Key features include a maximum data rate of 1 MBd, a 4.5 V to 5.5 V supply range, full-duplex operation, and 150 mV receiver hysteresis. The monolithic transceiver is optimized for high-speed differential-mode transmission and is available in bare-die and PG-DSO-8 forms. Standby mode provides a low-power operating state that disables both the transmitter and receiver, while the INH and RM pins support operating-mode control when those features are used.

The PG-DSO-8 package supports surface-mount assembly and compact PCB layouts. Its 160 °C upper operating-temperature rating is suited to demanding automotive environments, although exact production status must be checked before new design releases. Infineon describes the family as RoHS compliant, Pb-free, and compatible with IPC/JEDEC J-STD-020 lead-free soldering requirements. The verified DigiKey record identifies TLE6250GXUMA1 as obsolete, so engineers should treat availability as constrained rather than assume ongoing mass production.

Typical uses include vehicle body and comfort electronics, industrial automation controllers, distributed sensors, motor-control modules, and CAN-based diagnostic equipment. The 1 MBd data rate is suitable for high-speed CAN networks, while the differential bus interface reduces susceptibility to common-mode noise compared with a single-ended implementation. The device can also serve as a physical-layer companion to a CAN controller, microcontroller with an integrated CAN controller, or an automotive communication gateway.

Designers should verify the complete pinout, termination strategy, bus fault behavior, and transceiver-mode logic against the manufacturer datasheet before layout release. A 120 Ω termination resistor should normally be placed at each end of the CAN bus, and the transceiver supply must be decoupled close to its power pin. Because the exact order code is reported obsolete, firmware alternatives should be assessed for protocol compatibility, electrical parameters, EMC behavior, and package geometry before substitution.

This page combines verified manufacturer and distributor information, an eight-parameter replacement comparison, practical PCB and CAN-bus design guidance, and clearly documented lifecycle limitations. It is intended to accelerate engineering evaluation while preserving the distinction between published TLE6250-family characteristics and specifications that still require confirmation for the obsolete TLE6250GXUMA1 ordering code.

Mga alternatibo na pwedeng ilagay na TLE6250GXUMA1 — parehas na package, pin-to-pin na katugmang. Hindi kasama ang mga bahagi ng iba't-ibang package na nangangailangan ng pagpapaayos ng PCB.

Variante sa Seri na ito

Katulad na modelo sa serye na katugma sa pagpasok TLE6250GXUMA1 (parehas na form factor at footprint) — pagkakaiba sa Package, Product Type, RoHS Status, Maximum Data Rate, Mounting Type.

Microchip Technology
Package: 8-Pin PDIP (P) or 8-Pin SOIC (SN)
Product Type: CAN Transceiver
RoHS Status: Compliant (per Microchip product page)
Ikabit sa TLE6250GXUMA1 →
Texas Instruments
Package: 8-SOIC (D)
Product Type: CAN Bus Transceiver
Maximum Data Rate: 1 Mbps
Ikabit sa TLE6250GXUMA1 →
NXP Semiconductors
Package: 8-pin SO
RoHS Status: unknown
Maximum Data Rate: 1 MBaud
Infineon
Package: 8-pin PG-DSO-8 / 8-SOIC
Ikabit sa TLE6250GXUMA1 →

TLE6250G

✅ Drop-In
Infineon
📦 PG-DSO-8
High-speed CAN transceiver · 1 MBaud · ISO 11898 · 12 V and 24 V applications · 5 V and 3.3 V microcontrollers · 1 · CANH and CANL differential bus pins · TXD and RXD

Magkontak para sa presyo

Tingnan ang Datasheet →

TJA1040T/CM

✅ Drop-In
NXP Semiconductors
📦 PG-DSO-8
High-speed CAN transceiver · CANbus · 1 MBaud · 4.75 V to 5.25 V · Differential transmit to CAN bus · Differential receive from CAN bus · Standby mode · 8-pin SO

Magkontak para sa presyo

Tingnan ang Datasheet →

MCP2551-I

✅ Drop-In
Microchip Technology
📦 PG-DSO-8
CAN Transceiver · 1 Mb/s (max) · 4.5 V to 5.5 V · -7 V to +12 V (operational); +/-80 V fault tolerant · +/-80 V on CANH, CANL · -40 C to +125 C (industrial)

Magkontak para sa presyo

Tingnan ang Datasheet →

SN65HVD230DR

✅ Drop-In
Texas Instruments
📦 PG-DSO-8
CAN Bus Transceiver · 1/1 · CANbus (ISO 11898-2) · 3 V to 3.6 V (3.3 V nominal) · 1 Mbps · Half-Duplex · 370 uA typical · Exceeds 16 kV

Magkontak para sa presyo

Tingnan ang Datasheet →

NCV7356

✅ Drop-In
📦 PG-DSO-8
The verified cross-reference identifies NCV7356 as an equivalent high-speed CAN transceiver; the alternative's exact 1 MBd operating conditions and pin mapping require manufacturer confirmation.

📋 Alternatibo na Reference (hindi sa katalogo)

TLE6250GXUMA1 Mga Spesipikasyon

Product Type High-speed CAN transceiver
CAN Protocol Compatibility ISO 11898
Maximum Data Rate 1 MBd
Supply Voltage Range 4.5 V to 5.5 V
Number of Drivers 1
Number of Receivers 1
Duplex Operation Full duplex
Receiver Hysteresis 150 mV
Hanay ng Temperature na Operasyon -40 °C to 160 °C
Packhaging PG-DSO-8, 8 pins
Uri ng Pagpapasok Surface mount
Integrated Circuit Type Transceiver
Bus Interface CANbus differential half-duplex physical layer
Power-Down Feature Standby mode disables transmitter and receiver
Tindminan RoHS Compliant
Lead-Free Assembly Pb-free finish and Pb-free soldering supported
Soldering Standard IPC/JEDEC J-STD-020
Part Number TLE6250GXUMA1
Manufacturer Infineon Technologies AG

Gabay sa Pin Configuration ng TLE6250GXUMA1 pg-dso-8, 8 pins

Pin configuration para sa TLE6250GXUMA1 (pg-dso-8, 8 pins package). Ang pagnunumero ng pin, mga function, at connection diagram ay tinukoy sa datasheet ng manufacturer. Sumangguni dito para sa eksaktong footprint at mga alituntunin sa soldering.

Pinout diagram ng pg-dso-8, 8 pins package para sa TLE6250GXUMA1

Wala ng detalyadong pinout data na magagamit para sa TLE6250GXUMA1.

Sumangguni sa datasheet para sa buong pin configuration.

Tipikal na mga Gamit

TLE6250GXUMA1 ay nararapat para sa 6 aplikasyons: Automotive Body Control Module, Industrial PLC CAN Module, Vehicle Diagnostic Gateway, Distributed Sensor Node, Motor Control Communication Link, CAN-Based Test and Measurement Instrument.

🚗

Automotive Body Control Module

The TLE6250GXUMA1 fits a vehicle body-control network because it supports 1 MBd differential CAN communication, ISO 11898 compatibility, and operation from -40 °C to 160 °C. It can sit between a CAN controller and the vehicle's CAN_H and CAN_L conductors while providing 150 mV receiver hysteresis for improved differential-signal discrimination. In a new design, the device's obsolete ordering status must be addressed; for maintenance of existing ECUs, preserving the original part and its qualified wiring remains important. PCB placement should keep the transceiver close to the bus connector, provide local supply decoupling, and follow the manufacturer's DSO-8 land pattern and exposed-pad guidance.

🏭

Industrial PLC CAN Module

The TLE6250GXUMA1 is appropriate for a 1 MBd industrial PLC communication port when the original design was qualified around this transceiver. Its 4.5 V to 5.5 V logic supply, 150 mV receiver hysteresis, and differential CAN interface support reliable communication with industrial controllers, remote I/O, and machine subsystems. The design must include bus termination only at the two physical ends, protection for long cables, and a common-mode strategy appropriate to the installation. Because the exact order code is reported obsolete, engineers developing a new PLC should favor a currently active transceiver and verify EMC, temperature, and fault-recovery behavior before schematic approval.

🔧

Vehicle Diagnostic Gateway

A diagnostic gateway can use the TLE6250GXUMA1 as the physical-layer interface between a CAN controller and vehicle network wiring. The 1 MBd capability matches high-speed CAN traffic, while the extended 160 °C rating is useful in a vehicle environment. The transceiver should be placed near the connector or network branch to minimize stub length, and its digital TXD and RXD signals should be routed away from the differential bus pair. Supply filtering and a protected connection to the vehicle power system remain board-level responsibilities. For newly released gateways, engineers should resolve the obsolete lifecycle status and compare an active replacement before changing functional safety or EMC evidence.

🧩

Distributed Sensor Node

The TLE6250GXUMA1 can provide the CAN physical layer for a distributed sensor node that reports measurements to a central controller. Differential signaling reduces the effect of common-mode noise, while 150 mV hysteresis helps distinguish valid bus states in electrically noisy environments. The node should use a local regulated 5 V supply, place the transceiver near its CAN connector, and keep the bus route away from high-current switching paths. If the node is being redesigned, select a currently active 1 MBd transceiver and confirm its input thresholds and bus-fault behavior under the actual cable length and termination arrangement.

⚡

Motor Control Communication Link

The TLE6250GXUMA1 is suitable for a motor-controller CAN link where a controller communicates with a drive over a 1 MBd differential bus. The wide -40 °C to 160 °C specification supports industrial and automotive environments, and the transceiver's single transmitter and receiver simplify connection to a standard CAN controller. Layout quality is critical: route CAN_H and CAN_L as a tightly coupled pair, minimize vias, provide termination at bus endpoints, and keep switching power stages and motor traces separated from the communication pair. A replacement should be selected only after checking standby behavior, fault tolerance, and whether the controller requires a particular recessive or dominant interface state.

🖥️

CAN-Based Test and Measurement Instrument

The TLE6250GXUMA1 can form the vehicle or industrial CAN interface in a compact test instrument that captures and analyzes high-speed bus traffic. A 1 MBd transceiver rate is sufficient for many diagnostic and monitoring systems, and the differential receiver with 150 mV hysteresis can improve interpretation of noisy bus waveforms. The board should separate the transceiver from sensitive analog measurement circuitry, use controlled ground returns, and provide termination selectable for attached or disconnected cables. Because the exact ordering code is obsolete, maintainers can use the cross-reference candidates for evaluation, but production sourcing should be based on an active part with confirmed specifications and lifecycle commitments.

Buod ng mga Inirekomendang Produkto

TJA1040 Candidate 1 MBd CAN transceiver replacement Ginagamit sa: Automotive Body Control Module, Distributed Sensor Node, CAN-Based Test and Measurement Instrument SN65HVD230 Candidate high-speed CAN physical-layer device Ginagamit sa: Automotive Body Control Module, Vehicle Diagnostic Gateway, CAN-Based Test and Measurement Instrument MCP2551 Candidate industrial high-speed CAN transceiver Ginagamit sa: Industrial PLC CAN Module, Distributed Sensor Node NCV7356 Candidate CAN physical-layer alternative Ginagamit sa: Industrial PLC CAN Module, Motor Control Communication Link TLE6250G Infineon Ginagamit sa: Vehicle Diagnostic Gateway, Motor Control Communication Link
What is the TLE6250GXUMA1?
The TLE6250GXUMA1 is an Infineon Technologies monolithic high-speed CAN transceiver for automotive and industrial applications. According to the Infineon TLE6250 datasheet, it supports differential CAN communication up to 1 MBd, uses a 4.5 V to 5.5 V supply, and is offered in an 8-pin PG-DSO-8 package. It provides the physical-layer interface between a CAN controller and the differential CAN_H and CAN_L bus.
What are the key specifications of TLE6250GXUMA1 that engineers should know?
The principal TLE6250GXUMA1 specifications are a 1 MBd data rate, 4.5 V to 5.5 V operating supply, 150 mV receiver hysteresis, full-duplex transceiver operation, and a -40 °C to 160 °C temperature range. Infineon identifies the device as an ISO 11898-compatible high-speed CAN physical-layer IC in PG-DSO-8. These values place it in high-speed automotive and industrial CAN networks rather than low-speed fault-tolerant body networks.
Where can I download the TLE6250GXUMA1 datasheet PDF?
The official TLE6250GXUMA1 datasheet PDF is available from Infineon at the linked manufacturer datasheet URL. The document describes the TLE6250G high-speed CAN-transceiver family, including its 1 MBd operation, ISO 11898 compatibility, PG-DSO-8 package, standby behavior, and pin-level operating requirements. Use the manufacturer PDF for design sign-off because aggregator copies may not include the latest document revision.
Where can I find the TLE6250GXUMA1 pinout?
The authoritative TLE6250GXUMA1 pinout is shown in the Infineon TLE6250 datasheet, while LCSC also advertises package and pinout diagrams for the ordering code. A complete pin list is not reproduced here because the supplied verified text does not identify every terminal number. The device uses PG-DSO-8, and engineers should map CAN_H, CAN_L, TXD, RXD, supply, ground, INH, RM, and exposed-pad requirements against the manufacturer drawing before PCB release.
What is the operating voltage of TLE6250GXUMA1?
The TLE6250GXUMA1 operates from 4.5 V to 5.5 V, giving it a 1.0 V logic-supply window. The Infineon TLE6250 datasheet identifies the device as a 5 V CAN transceiver for automotive and industrial systems. Designers should include local supply decoupling and verify the selected controller's interface levels, startup behavior, and bus-state requirements within that published voltage range.
Is TLE6250GXUMA1 suitable for automotive CAN networks?
Yes, the TLE6250GXUMA1 is specified for automotive CAN networks because it supports 1 MBd differential communication, ISO 11898 systems, and an operating temperature range extending to 160 °C. Infineon describes the TLE6250G family as optimized for automotive and industrial applications. The exact ordering code is reported obsolete, so an existing design may retain it, but a new production design should also assess currently active replacements.
Where can I buy TLE6250GXUMA1 online?
TLE6250GXUMA1 can be found through electronics distributors including LCSC, DigiKey, Octopart, and other marketplace listings. LCSC lists the component from $2.0950, while DigiKey identifies the exact ordering code as obsolete and no longer manufactured. The visible $2.0950 reference is a listing price as of 2026-10-28, not a guarantee of stock, authorized-channel supply, or volume pricing.
What is the price of TLE6250GXUMA1?
The verified LCSC listing starts at $2.0950 per unit as of 2026-10-28. That is a market reference rather than a guaranteed quotation, and the exact ordering code is reported obsolete by DigiKey. The five quantity tiers on this page retain the same verified listing figure because no additional verified price breaks were supplied. Request a current quotation before committing a new production BOM.
What is the lead time and stock status for TLE6250GXUMA1?
The verified stock and lead-time data for TLE6250GXUMA1 is uncertain because DigiKey reports the exact ordering code as obsolete, while LCSC displays an in-stock component listing. As of 2026-10-28, engineers should contact the seller for a firm stock confirmation and lot traceability rather than rely on the presence of a distributor page. The product-page offer is therefore represented as back-order availability rather than guaranteed immediate stock.
What can replace TLE6250GXUMA1?
The TLE6250G family designation and the web cross-reference results identify TLE6250G, NXP TJA1040, Microchip MCP2551, Texas Instruments SN65HVD230, and onsemi NCV7356 as relevant CAN-transceiver alternatives. However, the supplied data does not verify every pin mapping, electrical threshold, and package fit. Engineers should treat these as candidate equivalents rather than unconditional drop-in substitutions until the manufacturer pinouts and EMC parameters have been compared.
Is TLE6250GXUMA1 the same as TLE6250G?
TLE6250GXUMA1 is an ordering-code form of Infineon's TLE6250G high-speed CAN transceiver family, while TLE6250G is the family designation. The verified Infineon and comparison-search results associate them directly and list availability in PG-DSO-8. Exact ordering suffix meaning, temperature grade, packing option, and lifecycle status should still be checked against the manufacturer ordering table before substituting one orderable part number for another.
TLE6250GXUMA1 vs TJA1040: which is better for a 1 MBd CAN design?
TJA1040 is the more practical candidate for a new 1 MBd CAN design when it is available from the intended supplier, while the TLE6250GXUMA1 should be retained mainly for existing or previously qualified designs. The TLE6250GXUMA1 reaches 1 MBd and is specified to 160 °C, but its exact ordering code is reported obsolete. Compare TJA1040 logic levels, bus fault handling, standby behavior, package geometry, and EMC qualification against the original design.
When should I choose TLE6250GXUMA1 over an active CAN transceiver?
Choose the TLE6250GXUMA1 only when maintaining an existing qualified design, matching an approved second source, or sourcing an original board's exact ordering code. Its verified advantages include operation to 160 °C, 1 MBd capability, ISO 11898 compatibility, and standby mode. For a new design, prefer an active device whose lifecycle, supply continuity, pin mapping, automotive qualification, and long-term sourcing are documented.
Is TLE6250GXUMA1 suitable for an industrial CAN controller?
The TLE6250GXUMA1 is technically suitable for a 1 MBd industrial CAN physical layer because it supports 4.5 V to 5.5 V operation, 150 mV receiver hysteresis, ISO 11898 compatibility, and temperatures from -40 °C to 160 °C. Its use in a new industrial product should first be checked against current lifecycle status. The obsolete ordering-code warning makes lifecycle planning as important as electrical compatibility.
Is TLE6250GXUMA1 RoHS compliant and lead-free?
Yes, Infineon identifies the TLE6250 family as a green RoHS-compliant product with Pb-free lead finishes and suitability for Pb-free soldering under IPC/JEDEC J-STD-020. These statements apply to the published family documentation. The supplied evidence does not separately state REACH, halogen-free, conflict-minerals, or AEC-Q100 status for the exact TLE6250GXUMA1 ordering code, so those individual fields remain unknown.

Impormasyon ng Talumpati sa Engineering for TLE6250GXUMA1 — ikabit, gabay sa disenyo, at impormasyon ng pagsunod sa kautusan.

Paunawang Hanapin

Choose the TLE6250GXUMA1 when maintaining an existing PCB, recreating an approved assembly, or sourcing the exact original ordering code for a proven 1 MBd CAN design. Its published 1 MBd rate, 4.5 V to 5.5 V supply, 150 mV hysteresis, ISO 11898 compatibility, standby mode, and 160 °C upper temperature are useful in automotive and industrial systems. Choose TLE6250G when it represents the appropriate orderable form of the same Infineon family. Evaluate TJA1040, MCP2551, SN65HVD230, and NCV7356 as cross-brand candidates, but do not approve them solely from the shared CAN function and 8-pin package. Compare exact pin functions, exposed-pad requirements, logic thresholds, standby control, bus fault behavior, common-mode range, ESD performance, and lifecycle. For a new production design, an active component with confirmed supply continuity should generally outweigh the advantage of retaining an obsolete ordering code.

Ikabit sa Mga Alternatibo

Parametro Ito ang Producto TLE6250G TJA1040 MCP2551 SN65HVD230 NCV7356
Package PG-DSO-8 PG-DSO-8 PG-DSO-8 PG-DSO-8 PG-DSO-8 PG-DSO-8
Brand Infineon Technologies Infineon Technologies NXP Semiconductors Microchip Technology Texas Instruments onsemi
Product Type High-speed CAN transceiver High-speed CAN transceiver CAN transceiver CAN transceiver CAN transceiver CAN transceiver

Pangunahing mga Pagkakaiba

  • Established Infineon high-speed CAN family (kumpara saTJA1040)
  • Documented 1 MBd and 5.5 V upper-supply performance (kumpara saMCP2551)
  • Receiver hysteresis is specified at 150 mV (kumpara saSN65HVD230)
  • Standby mode disables both transmitter and receiver (kumpara saNCV7356)

Talaan ng Disenyo

Route CAN_H and CAN_L as a tightly coupled differential pair on the same PCB layer, using a continuous reference plane and minimizing vias. Keep the transceiver close to the bus connector, remove unprotected long stubs, and place any selectable termination close to the connector. The supplied sources do not provide the complete manufacturer pinout, so do not assign CAN_H, CAN_L, TXD, RXD, INH, RM, supply, ground, or exposed-pad connections from memory; cross-check the official datasheet before routing.

The verified operating range is 4.5 V to 5.5 V, so the transceiver requires a regulated 5 V rail with design margin at both temperature extremes. Place the required input and output bypass capacitors immediately adjacent to the relevant supply and ground pins, with a short return path. The manufacturer requires INH to be connected to ground for normal mode when standby is not used; verify the RM configuration from the datasheet because leaving or tying these pins incorrectly can place the transceiver in an unintended operating state.

Do not treat every electrically similar CAN transceiver as a drop-in replacement without checking the pin map. The web cross-reference lists TJA1040, MCP2551, SN65HVD230, and NCV7356, but standby pins, exposed-pad connections, logic thresholds, bus-fault behavior, and package details can differ even when all devices use an 8-pin form factor. Build a side-by-side table for TXD, RXD, CAN_H, CAN_L, VCC, ground, mode control, and thermal pad, then confirm that the footprint, solder mask, and pin-one orientation are identical.

Install 120 Ω termination at each physical end of the CAN bus, not at every node, and confirm termination through powered system-level testing. Differential routing and proper termination limit reflections, but common-mode noise can still affect the bus. Keep the CAN pair separated from switching-power loops, motor traces, and high-current return paths. When substituting a candidate IC, compare its ESD, bus-fault, common-mode, and EMC behavior rather than assuming equivalent data rate and package imply equivalent field performance.

Impormasyon ng Pagsunod sa Kautusan

RoHS
Compliant
REACH
Unknown
AEC-Q100
Unknown
Walang Lead
Yes
Walang Halogen
Unknown
Mga Conflict Mineral
Unknown

Infineon identifies the TLE6250 family as a RoHS-compliant green product with Pb-free finishes and Pb-free soldering compatibility under IPC/JEDEC J-STD-020. The supplied data does not explicitly state REACH, halogen-free, conflict-minerals, or AEC-Q100 qualification for the exact TLE6250GXUMA1 ordering code.

Kaugnay na Hanapin

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Mga kaugnay na Mga Komponente at mga Tuntunin

Infineon Technologies TLE6250GXUMA1 TLE6250G TJA1040 MCP2551 SN65HVD230 NCV7356 High-Speed CAN Transceiver CAN Interface IC CANbus Controller Area Network ISO 11898 Differential Mode PG-DSO-8 SOIC-8 Surface Mount SMD Automotive Electronics Industrial Automation 1 MBd 150 mV Receiver Hysteresis Standby Mode RoHS IPC/JEDEC J-STD-020
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