MAX6709IUB+ Overview

As far as the mounting terminals of this voltage supervisor are concerned, it has 10 in total. Packaged in the form of a Tube, power management is easy to use. As a reference, this IC management includes 1 functions for your convenience. A series of 4 channels can be found on this supervisor. There are 10-TFSOP, 10-MSOP (0.118, 3.00mm Width) functions included in this PMIC so that you can refer to them. This IC power shares lots of benefits with other Multi-Voltage Supervisor products. Packages are specified to have an average peak reflow temperature of 260. In a 5V supply voltage, the power management conducts. A supply voltage of 4 is used to conduct the PMIC chip. Using Surface Mount, IC management is mounted. In this case, this PMIC chip can be sub-categorized as a Power Management Circuits chip. The total number of pins on this power management is 10. 10 pins are on the supervisor. In order for this IC power to function, the supply voltage (Vsup) cannot be less than 2V. It is recommended that the maximum supply voltage (Vsup) in this IC power be no more than 5.5V volts. Surface Mount is the recommended mounting type. The temperature of the supervisors should be set to this range: -40°C~85°C TA. The output voltage of this power managment ic during operation is Open Drain or Open Collector. There is a supply current of 35μA for the power management. If you want to search for similar IC managements of this manufacturer, you can always refer to MAX6709, which is the base power ics number. There is a requirement for 2.5/5V power to power this power management.

MAX6709IUB+ Features

Multi-Voltage Supervisor type
Minimum supply voltage of 2V
35μA operating supply current

MAX6709IUB+ Applications

There are a lot of Maxim Integrated MAX6709IUB+ Voltage Supervisors applications.

• Digitally controlled LDO regulators circuit
• Set top box
• Low voltage/high power - AI, GPU
• Military electronics
• Radio
• Military communications
• DVR
• Power communication system
• Refrigeration
• Detection of phase imbalance