L-ASC10-1SG48IAMJ -Industrial Control -Internet of Things

L-ASC10-1SG48IAMJ ApplicationField

-Consumer Electronics
-Medical Equipment
-Cloud Computing
-Artificial Intelligence
-Wireless Technology
-Internet of Things
-5G Technology
-Industrial Control

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L-ASC10-1SG48IAMJ FAQ Chips 

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Q: Where can I purchase Lattice L-ASC10 Development Boards, Evaluation Boards, or L-ASC10 Starter Kit? also provide technical information?
A: RAYPCB does not provide development board purchase services for the time being, but customers often consult about ZedBoard, Basys 3 board, TinyFPGA BX, Nexys4-DDR, Terasic DE10-Nano, Digilent Arty S7, etc. If you need relevant technical information, you can submit feedback information, our technicians will contact you soon.

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ICs L-ASC10-1SG48IAMJ Features

 Ten Rail Voltage Monitoring and Measurement

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Xilinx L-ASC10-1SG48IAMJ Overview

The L-ASC10-1SG48IAMJ (Analog Sense and Control – 10 rail) is a Hardware Management
(Power, Thermal, and Control Plane Management) Expander designed to be used with
Platform Manager 2, MachXO2, MachXO3, or ECP5 FPGAs to implement the Hardware
Management Control function in a circuit board. The L-ASC10-1SG48IAMJ (referred to as ASC)
enables seamless scaling of power supply voltage and current monitoring,
temperature monitoring, sequence and margin control channels. The ASC includes
dedicated interfaces supporting the exchange of monitor signal status and output
control signals with these centralized hardware management controllers. Up to
eight ASC devices can be used to implement a hardware management system.

provides three types of analog sense channels: voltage (nine standard channels
and one high voltage channel), current (one standard voltage and one high
voltage), and temperature (two external and one internal) .

Each of the analog sense channels is monitored through two independently
programmable comparators to support both high/low and in-bounds/out-of-bounds
(window-compare) monitor functions. The current sense channels feature a
programmable gain amplifier and a fast fault detect (<1 µs response time) for detecting short circuit events. The temperature sense channels can be configured to work with different external transistor or diode configurations. Nine general purpose 5 V tolerant open-drain digital input/ output pins are provided that can be used in a system for controlling DC-DC converters, low-drop-out regulators (LDOs) and optocouplers, as well as for supervisory and general purpose logic interface functions. Four high-voltage charge pumped outputs (HVOUT1-HVOUT4) may be configured as high-voltage MOSFET drivers to control high-side MOSFET switches. These HVOUT outputs can also be programmed as static output signals or as switched outputs (to support external charge pump implementation) operating at a dedicated duty cycle and frequency. The ASC device incorporates four TRIM outputs for controlling the output voltages of DC-DC converters. Each power supply output voltage can be maintained typically within 0.5% tolerance across various load conditions using the Digital Closed Loop Control mode. The internal 10-bit A/D converter can be used to monitor the voltage and current through the I2 C bus. The ADC is also used in the digital closed loop control mode of the trimming block. The ASC also provides the capability of logging up to 16 status records into the on-chip nonvolatile EEPROM memory. Each record includes voltage, current and temperature monitor signals along with digital input and output levels. The dedicated ASC Interface (ASC-I/F) is a reliable serial channel used to communicate with a Platform Manager 2, MachXO2, MachXO3, or ECP5 FPGA in a scalable star topology. The centralized control algorithm in the FPGA monitors signal status and controls output behavior via this ASC-I/F. The ASC I2 C interface is used by the FPGA or an external microcontroller for ASC background programming, interface configuration, and additional data transfer such as parameter measurement or I/O control or status. For example, voltage trim targets can be set over the I2 C bus and measured voltage, current, or temperature values can be read over the I2 C bus. The ASC also includes an on-chip output control block (OCB) which allows certain alarms and control signals a direct connection to the GPIOs or HVOUTs, bypassing the ASC-I/F for a faster response. The OCB is used to connect the fast current fault detect signal to an FPGA input directly. It also supports functions like Hot Swap with a programmable hysteretic controller. L-ASC10-1SG48IAMJ Tags integrated circuit

1. L-ASC10 development board
2. L-ASC10 evaluation board
3. L-ASC10 L-ASC10
4. L-ASC10-1SG48IAMJ Datasheet PDF
5. L-ASC10 starter kit
6. Lattice L-ASC10
7. L-ASC10 reference design
8. L-ASC10 evaluation kit
9. L-ASC10-1SG48IAMJ Datasheet PDF

Xilinx L-ASC10-1SG48IAMJ TechnicalAttributes

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