製品の詳細
The MAX20766 is a feature-rich smart slave IC designed to work with Maxim’s seventh-generation controller to implement a high-density multiphase voltage regulator. Up to six smart slave ICs, plus a controller IC, provide a compact synchronous buck converter that includes accurate individual phase-current and temperature reporting through SMBus/PMBus™. This smart slave device includes protection circuits for overtemperature, VX short, and all power-supply UVLO faults. If a fault is detected, the slave IC immediately shuts down and sends a fault signal to the controller IC.
Monolithic integration and advanced packaging technologies allow practical per-phase, high-switching frequencies with significantly lower losses than alternative implementations. Smart slave ICs are designed to support phase shedding and DCM modes for efficiency optimization over a wide range of load currents. High per-phase current- capability designs with low COUT enable a design with fewer phases and a smaller footprint.
The MAX20766 is available in a 16-pin FCQFN package with exposed top-side thermal pads. Top-side cooling improves heat transfer to ambient and reduces PCB and component temperatures.
主な機能
- Increased Power Density with Fewer External Components
- Monolithic Integration for Reduced Parasitics
- Scalable Architecture Compatible with Coupled Inductors
- 94% Peak Efficiency
- Top-Side Cooling for Improved Heat Transfer to Ambient
- Accurate Real-Time Telemetry of Critical Parameters
- PMBus-Compliant Interface through the Controller IC for Telemetry and Power Management
- Junction Temperature Monitoring and Reporting
- Per-Phase Current Reporting
- Advanced Self-Protection Features for the System and IC
- Overcurrent Protection
- Overtemperature Protection
- Boost Voltage UVLO
- VX Short Protection ,
アプリケーション/用途
- 通信およびネットワーク機器
- FPGA
- 高電流電圧レギュレータ
- メモリ
- マイクロプロセッサチップセット
- ネットワーク用ASIC
- サーバおよびストレージ機器
VIN (V) (min) | 6.5 |
VIN (V) (max) | 16 |
VOUT1 (V) (min) | 0.25 |
VOUT1 (V) (max) | 5.5 |
IOUT1 (A) (max) | 55 |
Switch Type | Internal |
Synchronous Switching? | Yes |
# DC-DC Outputs | 1 |
Switching Frequency (kHz) | 1300 |
Package/Pins | FCQFN/16 |
Budgetary Price (See Notes) | $2.68 @1k |
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説明
The MAX20796 Discrete Inductor evaluation kit (EV kit) provides a proven design to evaluate the MAX20796 fully-integrated, two-phase switching regulator. The MAX20766 can be installed on the EV kit for a three-phase switching regulator operation. The EV kit operates from a 4.5V to 16V input voltage range and supports an output voltage range of 1.8V to 5V. The board uses the MAX20796 on a proven eight-layer PCB design.
詳細を見る特長
- 4.5V to 16V Input Voltage Range
- 1.8V to 5V Output Voltage Range
- Banana Jacks for Input and Output Voltage
- SMB Coaxial Cable Jacks for Output Voltage Measurement and SYNC Clock Input and Output
- Configurable Output Voltage and Compensation Parameters
- Adjustable Current Limit
- PMBus Header for Connection to the MAXPOWERTOOL002# Dongle
- FAULT and PG Outputs
- Enable Input and Enable Debounce Circuit
- Fully Assembled and Tested
説明
The MAX20796 Discrete Inductor evaluation kit (EV kit) provides a proven design to evaluate the MAX20796 fully-integrated, two-phase switching regulator. The MAX20766 can be installed on the EV kit for a three-phase switching regulator operation. The EV kit operates from a 4.5V to 16V input voltage range and supports an output voltage range of 1.8V to 5V. The board uses the MAX20796 on a proven eight-layer PCB design.
詳細を見る特長
- 4.5V to 16V Input Voltage Range
- 1.8V to 5V Output Voltage Range
- Banana Jacks for Input and Output Voltage
- SMB Coaxial Cable Jacks for Output Voltage Measurement and SYNC Clock Input and Output
- Configurable Output Voltage and Compensation Parameters
- Adjustable Current Limit
- PMBus Header for Connection to the MAXPOWERTOOL002# Dongle
- FAULT and PG Outputs
- Enable Input and Enable Debounce Circuit
- Fully Assembled and Tested
パラメーター
VIN (V) (min) | 6.5 |
VIN (V) (max) | 16 |
VOUT1 (V) (min) | 0.25 |
VOUT1 (V) (max) | 5.5 |
IOUT1 (A) (max) | 55 |
Switch Type | Internal |
Synchronous Switching? | Yes |
# DC-DC Outputs | 1 |
Switching Frequency (kHz) | 1300 |
Package/Pins | FCQFN/16 |
Budgetary Price (See Notes) | $2.68 @1k |
主な機能
- Increased Power Density with Fewer External Components
- Monolithic Integration for Reduced Parasitics
- Scalable Architecture Compatible with Coupled Inductors
- 94% Peak Efficiency
- Top-Side Cooling for Improved Heat Transfer to Ambient
- Accurate Real-Time Telemetry of Critical Parameters
- PMBus-Compliant Interface through the Controller IC for Telemetry and Power Management
- Junction Temperature Monitoring and Reporting
- Per-Phase Current Reporting
- Advanced Self-Protection Features for the System and IC
- Overcurrent Protection
- Overtemperature Protection
- Boost Voltage UVLO
- VX Short Protection ,
アプリケーション/用途
- 通信およびネットワーク機器
- FPGA
- 高電流電圧レギュレータ
- メモリ
- マイクロプロセッサチップセット
- ネットワーク用ASIC
- サーバおよびストレージ機器
説明
The MAX20766 is a feature-rich smart slave IC designed to work with Maxim’s seventh-generation controller to implement a high-density multiphase voltage regulator. Up to six smart slave ICs, plus a controller IC, provide a compact synchronous buck converter that includes accurate individual phase-current and temperature reporting through SMBus/PMBus™. This smart slave device includes protection circuits for overtemperature, VX short, and all power-supply UVLO faults. If a fault is detected, the slave IC immediately shuts down and sends a fault signal to the controller IC.
Monolithic integration and advanced packaging technologies allow practical per-phase, high-switching frequencies with significantly lower losses than alternative implementations. Smart slave ICs are designed to support phase shedding and DCM modes for efficiency optimization over a wide range of load currents. High per-phase current- capability designs with low COUT enable a design with fewer phases and a smaller footprint.
The MAX20766 is available in a 16-pin FCQFN package with exposed top-side thermal pads. Top-side cooling improves heat transfer to ambient and reduces PCB and component temperatures.