Technical Documents
Specifications
Brand
MicrochipProduct Type
Voltage Regulator
Package Type
DFN
Mount Type
Surface
Polarity
Positive
Pin Count
6
Length
1.6mm
Height
0.5mm
Standards/Approvals
No
Series
MIC94325
Maximum Operating Temperature
125°C
Maximum Input Voltage
3.6V
Minimum Input Voltage
1.8V
Automotive Standard
No
Product Details
The MIC943x5 Ripple Blocker™ is a monolithic integrated circuit that provides low-frequency ripple attenuation (switching noise rejection) to a regulated output voltage. This is important for applications where a DC/DC switching converter is required to lower or raise a battery voltage but where switching noise cannot be tolerated by sensitive downstream circuits such as in RF applications. The MIC943x5 maintains high power supply ripple rejection (PSRR) with input voltages operating near the output voltage level to improve overall system efficiency.
Stock information temporarily unavailable.
SR 15,000.00
SR 3.00 Each (On a Reel of 5000) (ex VAT)
SR 17,250.00
SR 3.45 Each (On a Reel of 5000) (inc. VAT)
5000
SR 15,000.00
SR 3.00 Each (On a Reel of 5000) (ex VAT)
SR 17,250.00
SR 3.45 Each (On a Reel of 5000) (inc. VAT)
Stock information temporarily unavailable.
5000
Technical Documents
Specifications
Brand
MicrochipProduct Type
Voltage Regulator
Package Type
DFN
Mount Type
Surface
Polarity
Positive
Pin Count
6
Length
1.6mm
Height
0.5mm
Standards/Approvals
No
Series
MIC94325
Maximum Operating Temperature
125°C
Maximum Input Voltage
3.6V
Minimum Input Voltage
1.8V
Automotive Standard
No
Product Details
The MIC943x5 Ripple Blocker™ is a monolithic integrated circuit that provides low-frequency ripple attenuation (switching noise rejection) to a regulated output voltage. This is important for applications where a DC/DC switching converter is required to lower or raise a battery voltage but where switching noise cannot be tolerated by sensitive downstream circuits such as in RF applications. The MIC943x5 maintains high power supply ripple rejection (PSRR) with input voltages operating near the output voltage level to improve overall system efficiency.