Texas Instruments TPS2330ID

3-V to 13-V hot swap controller with active low enable 14-SOIC -40 to 85

IC HOT SWAP CTRLR GP 14SOIC Hot Swap Controller 1 Channel General Purpose 14-SOIC

Hot Swap Controller 1-CH 13V N-Channel Positive Voltage 14-Pin SOIC Tube

MCU 32-Bit KM ARM Cortex M0+ RISC 64KB Flash 1.8V/2.5V/3.3V 44-Pin MAPLGA Tray

TEXAS INSTRUMENTS TPS2330ID CONTROLLER, HOT SWAP, SMD, SOIC14

Hot Swap and Power Distribution 3-13V Sngl w/Pwr Gd Rpt, Act-Lo Enable

Nickel/Palladium/Gold (Ni/Pd/Au) EAR99 TPS2330 Circuit Breaker Fault Timeout Slew Rate hot swap controller 8.65mm 1mA 3V~13V -40C~85C

CONTROLLER, HOT SWAP, SMD, SOIC14; Controller Applications:Hot-Swap Power Controller; Input Voltage:13V; Internal Switch:No; Supply Voltage Range:3V to 13V; Digital IC Case Style:SOIC; No. of Pins:14; Operating Temperature Range:-40°C to +85°C; SVHC:No SVHC (19-Dec-2012); Input Voltage Max:13V; Operating Temperature Max:+85°C; Operating Temperature Min:-40°C; Package / Case:SOIC; Termination Type:SMD

The TPS2330 and TPS2331 are single-channel hot-swap controllers that use external N-channel MOSFETsas high-side switches in power applications. Features of these devices, such as over current protection (OCP), inrush-current control, output-power status reporting, and separation of load transients from actual load increases, are critical requirements for hot-swap applications. The TPS2330/31 devices incorporate under voltage lockout (UVLO) and power-good (PG) reporting to ensure the device is off at start-up and confirm the status of the output voltage rails during operation. An internal charge pump, capable of driving multiple MOSFETs, provides enough gate-drive voltage to fully enhance the N-channelMOSFETs. The charge pump controls both the rise times and fall times (dv/dt) of the MOSFETs, reducing power transients during power up/down. The circuit-breaker functionality combines the ability to sense overcurrentconditions with a timer function; this allows designs such as DSPs, that may have high peak currents during power-state transitions, to disregard transients for a programmable period.