Model No: TPS53515RVER
Texas Instruments TPS53515RVER
Manufacturer: Texas Instruments
SEMICON NO.: TPS53515RVER
Package: 28-VQFN
Stock: In stock
Description: IC Voltage Regulator 1.5V to 18V 12A
SEMICON NO.: TPS53515RVER
Package: 28-VQFN
Stock: In stock
Description: IC Voltage Regulator 1.5V to 18V 12A
Quantity :
| Mfr | Texas Instruments |
| Device Type | Single Synchronous Step-Down (Buck) Converter |
| Input Voltage (VIN) Range | 1.5 V to 18 V |
| Input Voltage Range (Recommended) | 4.5 V to 17 V |
| Output Configuration | Positive |
| Topology | Buck (Step-Down), Synchronous Rectification |
| Output Type | Adjustable |
| Number of Outputs | 1 |
| Output Voltage Range | 0.6 V to 5.5 V |
| Output Current (Max) | 12 A (Continuous) |
| Reference Voltage | 600 mV ±0.5% (Tolerance) |
| Control Mode | D-CAP3™ |
| Switching Frequency | 8 selectable settings from 250 kHz to 1 MHz |
| Supply Current (IVDD) | 1350 µA (Typ) / 1850 µA (Max) |
| Standby Current (IVDDSTBY) | 850 µA (Typ) / 1150 µA (Max) |
| Operating Temperature | -40°C to +85°C |
| Package | 28-VQFN |
| Mounting Type | Surface Mount |
| Compliance | RoHS Compliant |
The TPS53515RVER is a SWIFT synchronous step‑down buck converter from Texas Instruments, delivered in 28‑pin VQFN‑CLIP 3.5×4.5 mm tape‑and‑reel package, supporting 12 A continuous output current, 1.5‑18 V main input plus 4.5‑25 V bias supply, adjustable 0.6 V‑5.5 V output with D‑CAP3 control architecture, targeting high‑efficiency point‑of‑load power conversion for industrial and computing hardware.
Key Features & Applications
● Integrated high‑low side MOSFETs deliver 12 A continuous output current with low on‑state resistance for high conversion efficiency across load ranges.
● D‑CAP3 adaptive on‑time control provides ultra‑fast load transient response and eliminates external compensation components, simplifying PCB layout work.
● 0.6 V reference with ±0.5% accuracy, selectable switching frequency from 250 kHz to 1 MHz, and dual operation modes including Eco‑mode for light‑load efficiency and FCCM for low output ripple.
● Built‑in pre‑biased startup, output discharge circuit, open‑drain power‑good indicator, and comprehensive protection functions such as over‑voltage, under‑voltage, over‑current and thermal shutdown.
This DC‑DC regulator is widely deployed in FPGA and SoC core power supplies, server peripheral boards, industrial automation modules, high‑speed data acquisition equipment, networking hardware, embedded computing platforms and multi‑voltage point‑of‑load circuits requiring large output current and compact board space.
● Integrated high‑low side MOSFETs deliver 12 A continuous output current with low on‑state resistance for high conversion efficiency across load ranges.
● D‑CAP3 adaptive on‑time control provides ultra‑fast load transient response and eliminates external compensation components, simplifying PCB layout work.
● 0.6 V reference with ±0.5% accuracy, selectable switching frequency from 250 kHz to 1 MHz, and dual operation modes including Eco‑mode for light‑load efficiency and FCCM for low output ripple.
● Built‑in pre‑biased startup, output discharge circuit, open‑drain power‑good indicator, and comprehensive protection functions such as over‑voltage, under‑voltage, over‑current and thermal shutdown.
This DC‑DC regulator is widely deployed in FPGA and SoC core power supplies, server peripheral boards, industrial automation modules, high‑speed data acquisition equipment, networking hardware, embedded computing platforms and multi‑voltage point‑of‑load circuits requiring large output current and compact board space.
FAQ
Q: Why use separate PVIN and VDD bias inputs?
A: VDD bias maintains stable gate drive when PVIN drops low, preserving efficiency at low main input voltage.
Q: Are external compensation capacitors required?
A: No, D‑CAP3 control removes compensation network needs.
Q: What precautions apply for high‑current layout?
A: Keep power loop traces short and leverage the exposed thermal pad for adequate heat dissipation.
Q: Why use separate PVIN and VDD bias inputs?
A: VDD bias maintains stable gate drive when PVIN drops low, preserving efficiency at low main input voltage.
Q: Are external compensation capacitors required?
A: No, D‑CAP3 control removes compensation network needs.
Q: What precautions apply for high‑current layout?
A: Keep power loop traces short and leverage the exposed thermal pad for adequate heat dissipation.
Alternative DC‑DC regulator Models
1. TPS53513RVER: Pin‑compatible synchronous buck converter with 8 A continuous output current, ideal for cost‑optimized projects with lower current demand.
2. TPS53915RVER: TI high‑current SWIFT buck regulator supporting 14 A output current, serving as upgrade option for heavier load power requirements.
3. TPS546D24ARVFR: High‑performance stacked buck converter delivering high output current, suitable for computing loads with strict power‑rail accuracy requirements.
1. TPS53513RVER: Pin‑compatible synchronous buck converter with 8 A continuous output current, ideal for cost‑optimized projects with lower current demand.
2. TPS53915RVER: TI high‑current SWIFT buck regulator supporting 14 A output current, serving as upgrade option for heavier load power requirements.
3. TPS546D24ARVFR: High‑performance stacked buck converter delivering high output current, suitable for computing loads with strict power‑rail accuracy requirements.
