Infineon TLE8366EV33XUMA1 Automotive Voltage Regulator, PG-TSDSO-14 for Vehicle BCMs

Automotive voltage regulator delivers stable 3.3V, protecting BCM microcontrollers from voltage fluctuations.

4.5V?C40V input range handles battery spikes, critical for preventing BCM shutdown during jump-starts.

PG-TSDSO-14 package cuts PCB space by 40%, fitting compact under-dash BCM layouts.

TLE8366EV33XUMA1??s 93% efficiency reduces heat, extending BCM lifespan in passenger cars by 2 years.

-40??C to +125??C range meets AEC-Q100 Grade 2, surviving extreme cabin/engine bay temps.

SKU: TLE8366EV33XUMA1 Category: Tags: , , Brand:
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Infineon TLE8366EV33XUMA1 Automotive Voltage Regulator Overview for B2B Vehicle Control Systems

The Infineon TLE8366EV33XUMA1 is a reliable, automotive-grade linear voltage regulator??engineered for B2B applications requiring stable 3.3V power delivery, robust surge protection, and space efficiency for Automotive Electronics. It targets core vehicle control units: body control modules (BCMs), HVAC control systems, and door lock modules. Key integrations include: fixed 3.3V output voltage (optimized for BCM microcontrollers/sensors), 4.5V?C40V wide input range (handles 12V battery spikes and jump-starts), 93% peak efficiency (minimizes power loss), built-in over-voltage/over-current/thermal protection, PG-TSDSO-14 (Thin Shrink Dual Small Outline, 14-pin) surface-mount package, and -40??C to +125??C operating temperature??delivering consistent power to sensitive control electronics in harsh vehicle environments.

With 4.5V?C40V input range + 3.3V precision regulation (tuned for BCM reliability and automotive voltage variability), it balances three critical B2B needs: component protection (shields microcontrollers from surges), design flexibility (fits compact layouts), and long-term durability (survives extreme temps). As part of Infineon??s automotive power management lineup??a series trusted by 128,000+ automotive electronics engineers and BCM manufacturers??it meets strict quality benchmarks: AEC-Q100 Grade 2 (1,000+ hours of stress testing), ISO 26262 ASIL-B (functional safety for vehicle controls), RoHS 3, and UL 94V-0 (package flammability).

Senior engineers at a leading global BCM manufacturer endorse it: ??This regulator powers our next-gen BCMs. Its 40V input handles jump-starts, and 93% efficiency cuts heat??we hit 99.97% BCM uptime and 98% automaker satisfaction.?? For more dependable automotive voltage regulation solutions, visit IC Manufacturer.

Technical Parameters of Infineon TLE8366EV33XUMA1

Parameter Specification
Product Type Infineon Automotive-Grade Linear Voltage Regulator
Primary Function Stable 3.3V voltage regulation, over-voltage/over-current/thermal protection for vehicle controls
Input Voltage Range 4.5V to 40V DC (compatible with 12V vehicle batteries; handles spikes/jump-starts)
Output Voltage Fixed 3.3V DC (??2% regulation accuracy; ideal for BCM microcontrollers/sensors)
Maximum Output Current 500mA (continuous operation; supports multi-sensor BCM setups)
Efficiency (Peak) 93% (at 12V input, 3.3V/300mA output; typical BCM load conditions)
Protection Features Over-voltage protection (OVP: 42V typ), over-current protection (OCP: 700mA typ), thermal shutdown (TSD: 150??C typ)
Automotive Compliance AEC-Q100 Grade 2 (-40??C to +125??C), ISO 26262 ASIL-B
Operating Temperature Range -40??C to +125??C (cabin, under-dash, and engine bay-adjacent environments)
Package Type PG-TSDSO-14 (5.0mm x 6.5mm x 0.85mm, 14-pin Thin Shrink Dual Small Outline; surface-mount)
Compliance AEC-Q100 Grade 2, ISO 26262 ASIL-B, RoHS 3, UL 94V-0

Key Technical Features of TLE8366EV33XUMA1 Voltage Regulator

  • 4.5V?C40V Wide Input Range: Shields BCMs from surges. A BCM firm noted: ??40V input handles 36V jump-starts??microcontroller damage fell by 96%, saving $380,000 yearly in warranty claims.??
  • 3.3V ??2% Precision Regulation: Ensures sensor accuracy. An HVAC control firm shared: ??Stable 3.3V prevents HVAC temperature drift??customer complaints about inconsistent heating/cooling dropped by 85%.??
  • PG-TSDSO-14 Compact Package: Saves PCB space. A door module manufacturer confirmed: ??40% smaller than DIP14??our door lock PCBs shrank from 45mm2 to 27mm2, fitting tight door panel cavities.??
  • 93% Peak Efficiency: Reduces BCM heat. A passenger car OEM said: ??93% efficiency vs. 85% regulators cuts BCM temp by 12??C??lifespan extended by 2 years, lowering replacement costs by 30%.??
  • Triple Protection Features: Prevents downtime. A fleet BCM supplier explained: ??OVP/OCP/TSD stopped 99% of BCM failures??fleet roadside repairs dropped by 80%, saving logistics clients $50,000 yearly.??

Advantages vs. Typical Alternatives

Compared to narrow-input regulators (fail surges), low-precision regulators (ruin sensor accuracy), and large-package regulators (no space for compact BCMs), this Infineon Voltage Regulator solves critical B2B pain points??backed by real automaker feedback:

1. Better Surge Protection Than Narrow-Input Regulators: Narrow-input (4.5V?C18V) regulators fail during 12V vehicle jump-starts (30V?C36V spikes), causing 22% of BCM microcontroller failures and $720,000 yearly in warranties. The 40V range eliminates this. A BCM engineer said: ??Our old 18V regulators ruined 22% of microcontrollers??this 40V model cuts failures to 0.8%. We saved $380k in warranties and won a $4.1M contract with a global automaker that prioritizes jump-start resilience.??

2. More Precise Regulation Than Low-Precision Regulators: Low-precision (??5%) regulators cause BCM sensor drift (e.g., HVAC temp errors), leading to 45% more customer complaints and $220,000 yearly in service costs. The ??2% precision prevents this. An HVAC control engineer shared: ??Our old ??5% regulators had 45% temp drift complaints??this ??2% model cuts it to 7%. We saved $187k in service costs and retained a $1.9M EV HVAC contract, as EV owners demand consistent climate control.??

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3. Smaller Footprint Than Large-Package Regulators: DIP14 packages (19.05mm x 6.35mm) take up 40% more PCB space than PG-TSDSO-14 (5.0mm x 6.5mm), forcing BCMs to exceed under-dash size limits. The PG-TSDSO-14 enables miniaturization. A door module engineer confirmed: ??Our old DIP14 door modules were too big for 65% of new car door panels??this PG-TSDSO-14 model fits. We won a $1.5M contract with a luxury automaker, as their slim door designs require compact electronics.??

Typical Applications

  • Automotive Electronics (Body Control Modules (BCMs)): 4.5V?C40V handles surges, 3.3V powers microcontrollers. A BCM firm sold 90,000 units to automakers, cutting warranty claims by 96%.
  • Automotive Electronics (HVAC Control Systems): ??2% precision prevents temp drift, 93% efficiency reduces heat. An HVAC firm sold 70,000 units, lowering customer complaints by 85%.
  • Automotive Electronics (Door Lock Modules): PG-TSDSO-14 saves space, -40??C tolerance works in cold climates. A door module firm sold 55,000 units, fitting slim door panels in 98% of new cars.
  • Automotive Electronics (Seat Control Units): Over-current protection prevents motor damage, 3.3V powers position sensors. A seat control firm sold 40,000 units, reducing roadside repairs by 80%.
  • Automotive Electronics (Lighting Control Modules): 40V input handles battery spikes, 93% efficiency cuts power use. A lighting module firm sold 60,000 units, extending module lifespan by 2 years.

Frequently Asked Questions (FAQ)

Why is the 4.5V?C40V input range critical for BCMs?

BCMs connect to 12V vehicle batteries, which spike to 30V?C36V during jump-starts. Narrow-input (18V max) regulators fail these spikes, breaking 22% of BCM microcontrollers and costing $720k in warranties. The 40V range protects them. A BCM engineer said: ??Our old 18V regulators ruined 22% of microcontrollers??this 40V model cuts failures to 0.8%. We saved $380k in warranties and won a $4.1M global automaker contract focused on jump-start resilience.??

How does ??2% output precision improve HVAC control systems?

HVAC systems rely on 3.3V sensors to maintain temp accuracy??low-precision (??5%) regulators cause 1?C2??C drift, leading to 45% customer complaints. ??2% precision limits drift to 0.5??C. An HVAC engineer said: ??Our old ??5% regulators had 45% temp complaints??this ??2% model has 7%. We saved $187k in service costs and kept a $1.9M EV HVAC contract, as EV owners demand consistent climate control.??

What value does the PG-TSDSO-14 package add for door lock modules?

Modern car doors have slim panels with limited space??DIP14 packages take 40% more space than PG-TSDSO-14, making modules too big for 65% of new designs. PG-TSDSO-14 solves this. A door module engineer said: ??Our old DIP14 modules failed 65% of fit checks??this PG-TSDSO-14 model passes all. We won a $1.5M luxury automaker contract, as their slim doors need compact electronics.??

Why is 93% efficiency important for seat control units?

Seat control units are in enclosed door panels??low-efficiency (85%) regulators waste 15% of power as heat, shortening unit lifespan by 1.5 years. 93% efficiency cuts waste to 7%, extending life. A seat control engineer said: ??Our old 85% regulators lasted 3.5 years??this 93% model lasts 5.5 years. A premium automaker ordered 40k units, as their customers expect long-lasting seat controls, growing our revenue by 25%.??

How does AEC-Q100 Grade 2 compliance benefit lighting control modules?

Lighting control modules face -40??C (winter) to +125??C (summer engine heat)??non-compliant regulators fail in 14% of cases, causing lighting outages. Grade 2 tests ensure survival. A lighting module engineer said: ??Our old non-compliant regulators failed 14% of the time??this Grade 2 model fails 0.9%. We retained a $1.2M fleet contract, as their trucks need reliable lighting in all climates.??

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