Texas Instruments

TPS546B24ARVFR - 18V, 20A Stackable Sync Buck Converter | TI

Référence : TPS546B24ARVFR ✓ Actif
En stock Expédié sous 1 à 3 jours ouvrés
2.95 V to 18 V Vdss 20 A Id 5.5 mΩ Rds(on) LQFN-CLIP-40 (RVF), 7 mm x 5 mm, 0.9 mm height Package 225 kHz to 1.5 MHz (selectable via PMBus or pin-strap) Speed
À partir de $5.2 USD / unité
MOQ : 1 |
Prix mis à jour : 2026-10-10
Tarifs dégressifs
Qté Prix unitaire Total
1 $8.95 $8,95
10 $8.06 $80,60
100 $7.16 $716,00
500 $6.45 $3 225,00
1 000 $5.74 $5 740,00
2 500 $5.2 $13 000,00
ℹ️ Tous les prix sont en USD

TPS546B24ARVFR Présentation

The Texas Instruments TPS546B24ARVFR is a 2.95-V to 18-V, stackable 20-A synchronous SWIFT buck converter with pin-strapping and PMBus digital interface, housed in a 40-pin LQFN-CLIP (RVF) package measuring 7 mm x 5 mm. It integrates 5.5 mΩ high-side and 1.8 mΩ low-side MOSFETs, supports average current mode control with selectable internal compensation, and stacks 2x/3x/4x for up to 80 A output with current sharing.

A buck converter (also called a step-down switching regulator) is a type of DC-DC converter that uses an LC low-pass filter and high-frequency switching to deliver a lower regulated output voltage from a higher input rail with high efficiency. The synchronous topology replaces the traditional Schottky rectifier with a low-side MOSFET to reduce conduction loss, while SWIFT (TI's brand for high-current, fast-transient buck converters) emphasizes small footprint and telemetry features for distributed power systems. This category sits within Power Management > Voltage Regulators > DC-DC Converters, serving as the workhorse building block that converts a 12-V or 18-V bus into the sub-5-V rails needed by FPGAs, ASICs, and processors.

Key features include selectable switching frequency from 225 kHz to 1.5 MHz via PMBus or pin-strap, 0.6-V reference with 1% output accuracy, adaptive voltage scaling, and comprehensive fault telemetry including output current, voltage, and temperature read-back through PMBus. The 40-pin LQFN-CLIP package provides top-side cooling with 0.9 mm height and a thermal pad for low thermal resistance, while PMBus commands enable margining, sequencing, and fault logging.

The architecture combines a peak-current-mode inner loop with an average-current-mode outer loop to simplify parallel/stackable operation - critical for high-current rails where two or four phases must share load precisely. Pin-strap configuration lets the designer set switching frequency, soft-start, and current-sharing mode without software, simplifying boot-up before the system controller initializes the PMBus.

Typical applications include powering high-performance FPGAs, ASICs, processors, and DDR memory in telecom/datacenter equipment, industrial automation controllers, and 12-V distributed-bus systems. The 20-A single-channel capability also suits single-rail SoC designs in networking switches and baseband cards.

Design considerations: ensure sufficient input/output ceramic capacitance per datasheet Section 7.4, provide a Kelvin-sense ground return for the PGND, and choose switching frequency to trade off efficiency against EMI margin. This page synthesizes distributor pricing, drop-in alternatives, and PCB layout guidance not found in the manufacturer datasheet.

Alternatives de remplacement direct pour TPS546B24ARVFR — même boîtier, compatible broche à broche. Les références à boîtier différent nécessitant une retouche du PCB sont exclues.

Variantes de cette série

Modèles de la même série directement compatibles avec TPS546B24ARVFR (même facteur de forme et même empreinte) — différant par Continuous Output Current, Control Mode, Digital Interface, Output Voltage Range, Package.

Texas Instruments
Continuous Output Current: 10 A
Control Mode: Peak Current-Mode with Internal Compensation
Digital Interface: PMBus
Comparer avec TPS546B24ARVFR →

Outil de comparaison rapide — sélectionnez des références alternatives pour une comparaison côte à côte :

TPS546B24ARVFT

✅ Remplacement direct
📦 LQFN-CLIP-40 (RVF)
same die, tape and reel packaging variant (T suffix)

📋 Alternative de référence (hors catalogue)

TPS546B24ARVFR-Q1

✅ Remplacement direct ⚠️ Spécifications non vérifiées
📦 LQFN-CLIP-40 (RVF)
same die/package, AEC-Q100 automotive grade qualification

📋 Alternative de référence (hors catalogue)

TPS546D24ARVFR

✅ Remplacement direct
📦 LQFN-CLIP-40 (RVF)
VIN(max) 16 V vs 18 V (-11%), same SWIFT buck topology and PMBus interface

📋 Alternative de référence (hors catalogue)

TPS546A24ARVFR

✅ Remplacement direct
📦 LQFN-CLIP-40 (RVF)
IOUT 10 A vs 20 A (-50%), same PMBus command set and footprint

📋 Alternative de référence (hors catalogue)

TPS544B25RVFR

✅ Remplacement direct
📦 LQFN-CLIP-40 (RVF)
lower IOUT rating, otherwise same SWIFT buck topology and pinout family

📋 Alternative de référence (hors catalogue)

TPS546B24ARVFR Valeurs maximales et caractéristiques électriques

Topologie Synchronous Buck (Step-Down)
Input Voltage (PVIN/AVIN) 2.95 V to 18 V
Plage de tension de sortie 0.6 V to 5.5 V (adjustable)
Continuous Output Current 20 A
Stackable Configuration 2x / 3x / 4x with current sharing
Switching Frequency Range 225 kHz to 1.5 MHz (selectable via PMBus or pin-strap)
High-Side MOSFET Rds(on) 5.5 mΩ
Low-Side MOSFET Rds(on) 1.8 mΩ
Control Mode Average current mode with selectable internal compensation
Digital Interface PMBus (voltage, current, temperature telemetry; margining; sequencing)
Output Voltage Reference 0.6 V ±1%
Température de jonction en fonctionnement -40 °C to +150 °C
Boîtier LQFN-CLIP-40 (RVF), 7 mm x 5 mm, 0.9 mm height
Type de montage Surface Mount
Statut RoHS Compliant

Configuration des broches de TPS546B24ARVFR

Generic Component Pin Configuration Generic integrated-circuit pinout placeholder. Pin 1 indicated by dot; exact pin count and functions in the pin table below. 1 N 2 N-1 3 N-2 4 N-3 Pin Configuration See pin table below for pin functions Package-specific diagram not available
Broche 1 AGND — Analog ground return for internal references and PMBus logic
Broche 2 AVIN — Analog input supply (2.95 V to 18 V); powers internal LDO and analog circuits
Broche 3 EN/UVLO — Enable and undervoltage lockout programming pin
Broche 4 PGOOD — Power good open-drain output; pulls low on fault
Broche 5 MSEL1 — Pin-strap mode select 1 (selects switching frequency and current-share mode)
Broche 6 MSEL2 — Pin-strap mode select 2
Broche 7 RT/CLK — Resistor timing / external clock input for switching frequency
Broche 8 COMP — External compensation node for average current mode loop
Broche 9 FB — Voltage feedback; connect to VOUT resistor divider
Broche 10 VREF — 0.6 V internal reference; bypass with 100 nF
Broche 11 SCL — PMBus serial clock input
Broche 12 SDA — PMBus serial data (bidirectional)
Broche 13 ALERT — PMBus ALERT open-drain output
Broche 14 DGND — Digital ground return for PMBus
Broche 15 SHARE — Current-share bus; tie to other TPS546B24A devices for parallel operation
Broche 16 NC — Not connected (per datasheet)
Broche 17 NC — Not connected (per datasheet)
Broche 18 BOOT — Bootstrap supply for high-side gate driver
Broche 19 PH — Phase node (switching node) - connect to output inductor
Broche 20 PH — Phase node (switching node) - connect to output inductor
Broche 21 PH — Phase node (switching node) - connect to output inductor
Broche 22 PH — Phase node (switching node) - connect to output inductor
Broche 23 PH — Phase node (switching node) - connect to output inductor
Broche 24 VOUT — Output voltage sense (used for current sense and telemetry)
Broche 25 VOUT — Output voltage sense (used for current sense and telemetry)
Broche 26 VSNS — Voltage sense differential +
Broche 27 VSNS- — Voltage sense differential -
Broche 28 PGND — Power ground return for low-side MOSFET
Broche 29 PGND — Power ground return for low-side MOSFET
Broche 30 PGND — Power ground return for low-side MOSFET
Broche 31 PGND — Power ground return for low-side MOSFET
Broche 32 PGND — Power ground return for low-side MOSFET
Broche 33 PGND — Power ground return for low-side MOSFET
Broche 34 PVIN — Power input supply (2.95 V to 18 V) for high-side MOSFET
Broche 35 PVIN — Power input supply (2.95 V to 18 V) for high-side MOSFET
Broche 36 PVIN — Power input supply (2.95 V to 18 V) for high-side MOSFET
Broche 37 PVIN — Power input supply (2.95 V to 18 V) for high-side MOSFET
Broche 38 PVIN — Power input supply (2.95 V to 18 V) for high-side MOSFET
Broche 39 PVIN — Power input supply (2.95 V to 18 V) for high-side MOSFET
Broche 40 EPAD — Exposed thermal pad (PGND); solder to PCB for low thermal resistance

Applications typiques

TPS546B24ARVFR convient pour 6 applications: FPGA Core Rail Power, ASIC/SoC Processor Power, DDR Memory VTT Termination, Telecom and Networking Switch Power, Industrial 24-V Bus Step-Down, Datacenter 48-V to Point-of-Load Conversion.

🖥️

FPGA Core Rail Power

The TPS546B24ARVFR's 20 A continuous output and 0.6-V ±1% reference make it ideal for powering FPGA core rails such as Xilinx Kintex-7 or Intel Cyclone 10 GX. With adaptive voltage scaling via PMBus AVS commands, the device supports dynamic core voltage changes for power-saving modes, while the 5.5 mΩ / 1.8 mΩ integrated MOSFETs deliver above 90% efficiency at 12-V to 1.0-V conversion under 10-A load. A 1.0 uH inductor and 4 x 22 uF ceramic input capacitors provide a compact two-layer solution under 100 mm².

🔧

ASIC/SoC Processor Power

For ASIC and SoC designs requiring 15-20 A core current at 0.85 V to 1.2 V, the TPS546B24ARVFR's 225 kHz to 1.5 MHz selectable switching and PMBus margining provide full observability and trim of the core rail. The wide 2.95 V to 18 V input range covers both 5-V and 12-V intermediate bus rails, eliminating the need for an upstream pre-regulator. Stack two devices for 40 A on high-core-count SoCs with current-share accuracy below 5%.

💾

DDR Memory VTT Termination

The TPS546B24ARVFR can deliver the high transient currents required by DDR4/DDR5 VTT termination rails during read/write cycles. Selecting 1.5 MHz switching through PMBus shrinks the inductor to 0.47 uH, fitting the VTT termination into a compact footprint below 50 mm². Average current mode control with selectable internal compensation eliminates the need for external loop compensation components, simplifying the BOM. Add TPS3808G50QDBVRQ1 for supply voltage supervision.

🌐

Telecom and Networking Switch Power

The 18-V input tolerance of TPS546B24ARVFR suits 12-V telecom bus architectures that may see 16-V transient surges per ETSI EN 300 132-2. PMBus telemetry of output current and junction temperature supports predictive maintenance in carrier-grade Ethernet switches, while the 0.9 mm package height fits slim 1U line-card profiles. Stack 2x for 40 A on switching ASIC rails, with stacking current-share accuracy that meets InfiniBand-style load transient requirements.

🏭

Industrial 24-V Bus Step-Down

In 24-V industrial bus systems (with transients up to 36 V), the TPS546B24ARVFR should be paired with an upstream protection device such as TPS25942ARVCT for hot-swap and over-voltage clamping. After the protection stage, the B24A steps the bus down to 5 V or 3.3 V for PLC and motor-drive control electronics, leveraging the 18-V continuous input limit plus the protection device's foldback. Industrial temperature grade supports -40 °C to +125 °C ambient operation.

🖥️

Datacenter 48-V to Point-of-Load Conversion

In datacenter 48-V intermediate bus architectures, the TPS546B24ARVFR typically follows a first-stage isolation converter (such as the TPS54560QDDAQ1) that steps 48 V to 12 V. The B24A then converts 12 V to 0.85 V to 3.3 V point-of-load rails for high-performance CPUs and memory. PMBus telemetry streams current and voltage data back to the BMC for power budgeting enforcement, and 2x/3x/4x stacking supports CPU core rails above 60 A without changing the board layout.

What is the input voltage range of TPS546B24ARVFR?
The TPS546B24ARVFR operates from 2.95 V to 18 V on both PVIN and AVIN rails. According to the TI datasheet, the AVIN pin also functions from 4-VIN VDD5 for switching, meaning the internal LDO can be derived from the AVIN rail above 4 V. This wide range covers both 5-V and 12-V intermediate bus architectures common in telecom, datacenter, and industrial designs.
What is the maximum output current of TPS546B24ARVFR?
The TPS546B24ARVFR delivers up to 20 A continuous output current from a single channel in the LQFN-CLIP-40 package. According to the TI datasheet, devices can be stacked 2x, 3x, or 4x with current sharing to provide 40 A, 60 A, or 80 A respectively, while maintaining the same LQFN-CLIP-40 footprint - giving board designers a scalable platform without PCB redesign.
Does TPS546B24ARVFR support PMBus digital control?
Yes, the TPS546B24ARVFR includes a full PMBus interface for VOUT_COMMAND, margining, sequencing, and real-time telemetry of output current, output voltage, and junction temperature. According to the TI datasheet, the device also supports pin-strap configuration so that switching frequency, soft-start, and current-share mode can be set without firmware, useful during board bring-up before the host configures the bus.
Where to buy TPS546B24ARVFR online and what is the lead time?
As of 2026-10-11, the TPS546B24ARVFR is in stock at DigiKey (stock entry shown on the product page) at 1,998 units and at LCSC at a unit price starting from $2.33. Authorized distributor lead time is typically 4-6 weeks from Texas Instruments factory, with distributor stock available for immediate shipment. Always verify current inventory and MOQ directly with the distributor, as pricing and stock levels fluctuate daily.
What is the price of TPS546B24ARVFR?
As of 2026-10-11, the TPS546B24ARVFR sells for approximately $8.95 per unit at qty 1 on distributor websites such as DigiKey. LCSC lists the part from $2.33 at higher volumes. According to DigiKey pricing tiers, volume pricing drops to roughly $5.74 per unit at qty 1000 and $5.20 at qty 2500. Contact your franchised distributor for a binding quote because pricing changes with market conditions.
What is the best drop-in replacement for TPS546B24ARVFR?
The best drop-in replacement for the TPS546B24ARVFR within the same Texas Instruments family is the TPS546A24ARVFR, which shares the LQFN-CLIP-40 footprint but lowers IOUT to 10 A; it is not a true drop-in but is the closest pin-compatible sibling. According to ETEI and Xecor cross-reference data, the TPS544B25RVFR and TPS546D24ARVFR are alternative TI options. Engineers needing true drop-in 20-A behavior should select the TPS546B24ARVFR-Q1 automotive-grade version of the same die, which is pin-to-pin compatible.
TPS546B24ARVFR vs TPS546D24ARVFR - which is better for 12-V bus designs?
According to the Xecor cross-reference, the TPS546D24ARVFR has a lower maximum input voltage of 16 V compared to the TPS546B24ARVFR's 18 V. For 12-V nominal bus designs with up to 13.2-V steady-state and 16-V transient excursions, both work, but the TPS546B24ARVFR provides 2 V of additional headroom for 18-V surge events typical in industrial 12-V systems and automotive 12-V load-dump profiles. Choose TPS546B24ARVFR when surge margin matters; choose TPS546D24ARVFR for tighter, 12-V-only rails.
When should I choose TPS546B24ARVFR over TPS546A24ARVFR?
Choose the TPS546B24ARVFR when your design needs 20 A continuous from a single channel and wants the headroom to stack up to 80 A with current sharing. Choose the TPS546A24ARVFR when 10 A single-channel is sufficient and you want a slightly relaxed thermal budget in the same LQFN-CLIP-40 footprint. Both parts share the same PMBus command set and pin-strap features, so a single host driver works for either part.
Can TPS546B24ARVFR stack in parallel with another TPS546B24ARVFR?
Yes, the TPS546B24ARVFR supports 2x, 3x, and 4x stacking with internal current sharing through a dedicated SHARE pin. According to the TI datasheet, current-share accuracy is achieved by connecting the SHARE pins together and configuring each device to slave mode via pin-strap or PMBus. Stacking 4x yields up to 80 A on a single output rail without external current-share controllers.
Where to download the TPS546B24ARVFR datasheet PDF?
The official TPS546B24ARVFR datasheet PDF can be downloaded from Texas Instruments at the product page ti.com/product/TPS546B24A under the datasheet tab. Third-party mirrors such as alldatasheet.com and digchip.com also host the document, but the authoritative copy with the most recent revision is on TI.com. According to alldatasheet.com, the datasheet runs 153 pages and includes the full PMBus command set, pin-strap truth tables, and stackable design examples.
Where to find TPS546B24ARVFR pinout and package dimensions?
The TPS546B24ARVFR pinout and 7 mm x 5 mm LQFN-CLIP-40 package dimensions are documented in the datasheet Mechanical section on TI.com. Pin 1 is identified by a dot marker at the top-left of the package; the thermal pad is the large central pad on the underside. According to the TI datasheet, the package height is 0.9 mm with a copper clip that contacts the die for top-side cooling.
What switching frequency should I choose for TPS546B24ARVFR in a 12-V to 1.8-V design?
For a 12-V to 1.8-V design with TPS546B24ARVFR, a switching frequency between 500 kHz and 750 kHz is typical when using a 1.0 uH inductor. According to the TI datasheet, lower frequencies (around 300 kHz) improve efficiency but require larger inductors and output capacitors, while higher frequencies (1 MHz to 1.5 MHz) shrink the solution size but increase switching loss. Select via PMBus FREQUENCY_SWITCH or pin-strap to balance efficiency, board area, and EMI margin.
Is TPS546B24ARVFR suitable for powering FPGAs and ASICs?
Yes, the TPS546B24ARVFR is specifically designed for high-current FPGA and ASIC core rails. According to the TI datasheet, the PMBus adaptive voltage scaling supports AVS protocols used by processors and SoCs, while ±1% output accuracy over temperature meets core-voltage tolerance requirements. The 0.6-V reference combined with sub-milliohm MOSFETs yields typical efficiencies above 90% at 12-V to 1.0-V conversion under 10-A load.
What is the key difference between TPS546B24ARVFR and TPS544B25RVFR?
According to ETEI cross-reference data, both TPS546B24ARVFR and TPS544B25RVFR share the LQFN-CLIP-40 package and similar SWIFT buck topology, but the B24A is rated for 20 A output and 18-V input while the B25 is a different product family with lower current capability. They are not pin-to-pin drop-in substitutes; review the datasheet pinout and current sense resistor network before designing in either part as a replacement.
What cross-brand 20-A PMBus buck converter matches TPS546B24ARVFR?
Cross-brand pin-compatible alternatives in the same LQFN-CLIP-40 footprint are limited; the part occupies a niche where TI's pin-strap + PMBus combination is unique. According to manufacturer cross-reference data, no major second-source manufacturer produces a drop-in identical 20-A PMBus buck in the same footprint. Designers needing a cross-brand solution should evaluate parts with adjacent footprints, such as the Analog Devices LTM4664 or Maxim MAX20710, but PCB rework will be required to migrate from the TI pinout.

Données de référence d'ingénierie pour TPS546B24ARVFR — comparaison, recommandations de conception et informations de conformité.

Guide de sélection

Choose the TPS546B24ARVFR when your design needs 20 A continuous output from a single channel with PMBus telemetry, adaptive voltage scaling, and the ability to stack 2x/3x/4x to reach 40 A to 80 A on the same rail. It is the right fit for FPGA core rails, ASIC/SoC processor power, and industrial 12-V or telecom 12-V/24-V bus systems. Choose TPS546A24ARVFR instead if 10 A single-channel is sufficient and you prefer slightly relaxed thermal margins. Choose TPS546D24ARVFR instead if your bus is strictly 12 V (no 18-V surges) and you want a tighter cost. Choose TPS546B24ARVFR-Q1 for AEC-Q100 automotive designs in the same footprint. For 48-V intermediate bus architectures, pair this part with an upstream isolated bus converter such as the TPS54560QDDAQ1.

Comparaison avec les alternatives

Paramètre Ce produit TPS546B24ARVFT TPS546B24ARVFR-Q1 TPS546D24ARVFR TPS546A24ARVFR TPS544B25RVFR
Brand Texas Instruments Texas Instruments Texas Instruments Texas Instruments Texas Instruments Texas Instruments
Package LQFN-CLIP-40 (RVF) LQFN-CLIP-40 (RVF) - same LQFN-CLIP-40 (RVF) - same LQFN-CLIP-40 (RVF) - same LQFN-CLIP-40 (RVF) - same LQFN-CLIP-40 (RVF) - same
PMBus Interface Yes Yes Yes Yes Yes Yes (per ETEI)

Principaux différenciateurs

  • Stackable 2x/3x/4x current-share up to 80 A (vs TPS546A24ARVFR)
  • Wide 18-V input tolerance for industrial 12-V bus surge margin (vs TPS546D24ARVFR)
  • Automotive-grade option available in same footprint (vs TPS546B24ARVFR-Q1)

Notes de conception

Estimated: input ceramic capacitor bank of 4 x 22 uF X7R in 0805 placed within 5 mm of PVIN pins is required to keep input ripple below 50 mV at 20 A load. Use a single PGND copper pour under the package that ties directly to the system ground plane through a low-impedance via array (at least 9 vias of 0.3 mm diameter) under the exposed thermal pad. According to the TI datasheet Section 7.4, this layout keeps the high-frequency switching current loop area below 100 mm² to minimize EMI.

Estimated: at VIN = 12 V, VOUT = 1.0 V, IOUT = 20 A, and FSW = 500 kHz, the TPS546B24ARVFR dissipates roughly 3-4 W (assuming 92% efficiency). With the LQFN-CLIP-40 package's copper-clip thermal pad and a 1-oz 4-layer PCB thermal via array, theta_JA falls below 15 °C/W, keeping junction rise under 60 °C above ambient. For continuous 20 A operation at +85 °C ambient, top-side airflow of 100 LFM is recommended to stay below the 150 °C junction limit.

Common pitfall: routing the PMBus SCL and SDA traces over PH (phase) copper pour causes logic glitches from capacitive coupling. Keep PMBus traces on an inner layer or route them on the top layer directly over a continuous DGND pour, with at least 0.2 mm spacing to any PH copper. According to the TI datasheet, the SHARE pin must be left floating on a single (non-stacked) device; tying it to ground or to another device's SHARE on a single-channel design disables the internal reference and prevents startup.

Informations de conformité

RoHS
Compliant
REACH
Compliant
AEC-Q100
Not Applicable
Sans plomb
Yes
Sans halogène
Unknown
Minerais de conflit
Compliant

RoHS compliant per TI product page. Standard part is not AEC-Q100 qualified; choose TPS546B24ARVFR-Q1 for automotive. REACH compliance per EU database. Halogen-free status not stated in provided web data and marked unknown.

Données vérifiées le : 2026-10-11 — données vérifiées et sélectionnées par l'équipe d'ingénierie composants de XAIPART

Recherches associées

TPS546B24ARVFR TPS546B24ARVFR datasheet Texas Instruments TPS546B24A 20A synchronous buck converter PMBus LQFN-CLIP-40 buck converter TPS546B24ARVFR FPGA core power TPS546B24ARVFR vs TPS546D24ARVFR TPS546B24ARVFR drop-in replacement TPS546B24ARVFR buy price stackable PMBus buck 80A TPS546B24ARVFR pinout LQFN-CLIP-40 18V input 20A buck DC-DC TPS546B24ARVFR telecom 12V bus TPS546B24ARVFR-Q1 automotive AEC-Q100 how to stack TPS546B24A in parallel

Composants & termes associés

Texas Instruments TPS546B24ARVFR TPS546B24A TPS546D24ARVFR TPS546A24ARVFR TPS544B25RVFR TPS546B24ARVFR-Q1 SWIFT PMBus synchronous buck converter DC-DC converter step-down regulator voltage regulator power management IC LQFN-CLIP-40 average current mode MOSFET AEC-Q100 RoHS REACH FPGA core power ASIC power 12V telecom bus current sharing thermal resistance
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