Datasheet Linear Technology LTM4601-1

ManufacturerLinear Technology
SeriesLTM4601-1

12A µModule (Power Module) Regulator with PLL, Output Tracking and Margining

Datasheets

Datasheet LTM4601, LTM4601-1
PDF, 964 Kb, Language: en, File uploaded: Sep 24, 2017, Pages: 30
12A µModule Regulator with PLL, Output Tracking and Margining
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Prices

Packaging

LTM4601EV-1#PBFLTM4601EY-1#PBFLTM4601IV-1#PBFLTM4601IY-1LTM4601IY-1#PBF
N12345
Package15mm × 15mm x 2.82mm LGA
Package Outline Drawing
15mm × 15mm × 3.42mm BGA
Package Outline Drawing
15mm × 15mm x 2.82mm LGA
Package Outline Drawing
15mm × 15mm × 3.42mm BGA
Package Outline Drawing
15mm × 15mm × 3.42mm BGA
Package Outline Drawing
Package CodeLGABGALGABGABGA
Package Index05-08-180105-08-190305-08-180105-08-190305-08-1903
Pin Count118118118118118

Parametrics

Parameters / ModelsLTM4601EV-1#PBFLTM4601EY-1#PBFLTM4601IV-1#PBFLTM4601IY-1LTM4601IY-1#PBF
ArchitectureConstant On-Time Current ModeConstant On-Time Current ModeConstant On-Time Current ModeConstant On-Time Current ModeConstant On-Time Current Mode
Demo BoardsDC1041A-A,DC1043A-A,DC1043A-B,DC1043A-C,DC1118A-A,DC1118A-B,DC1118A-CDC1041A-A,DC1043A-A,DC1043A-B,DC1043A-C,DC1118A-A,DC1118A-B,DC1118A-CDC1041A-A,DC1043A-A,DC1043A-B,DC1043A-C,DC1118A-A,DC1118A-B,DC1118A-CDC1041A-A,DC1043A-A,DC1043A-B,DC1043A-C,DC1118A-A,DC1118A-B,DC1118A-CDC1041A-A,DC1043A-A,DC1043A-B,DC1043A-C,DC1118A-A,DC1118A-B,DC1118A-C
Design ToolsLTspice File,LTpowerCAD ModelLTspice File,LTpowerCAD ModelLTspice File,LTpowerCAD ModelLTspice File,LTpowerCAD ModelLTspice File,LTpowerCAD Model
Export Controlnonononono
FeaturesTracking, Margining, External Synchronization, PolyPhase, Differential Remote Sense, Power GoodTracking, Margining, External Synchronization, PolyPhase, Differential Remote Sense, Power GoodTracking, Margining, External Synchronization, PolyPhase, Differential Remote Sense, Power GoodTracking, Margining, External Synchronization, PolyPhase, Differential Remote Sense, Power GoodTracking, Margining, External Synchronization, PolyPhase, Differential Remote Sense, Power Good
Frequency, kHz850850850850850
Frequency Sync Range600kHz - 1.1MHz600kHz - 1.1MHz600kHz - 1.1MHz600kHz - 1.1MHz600kHz - 1.1MHz
Integrated Inductoryesyesyesyesyes
Ishutdown, µA2222222222
Isupply, mA3.83.83.83.83.8
Max Phases44444
Monolithicyesyesyesyesyes
Number of Outputs11111
Operating Temperature Range, °C0 to 850 to 85-40 to 85-40 to 85-40 to 85
Output Current, A1212121212
Polyphaseyesyesyesyesyes
Switch Current, A1212121212
Synchronousyesyesyesyesyes
TopologyBuckBuckBuckBuckBuck
Topology 1BuckBuckBuckBuckBuck
Vin Max, V2020202020
Vin Min, V4.54.54.54.54.5
Vout Max, V55555
Vout Maximum5V5V5V5V5V
Vout Min, V0.60.60.60.60.6

Eco Plan

LTM4601EV-1#PBFLTM4601EY-1#PBFLTM4601IV-1#PBFLTM4601IY-1LTM4601IY-1#PBF
RoHSCompliantCompliantCompliantNot CompliantCompliant

Other Options

LTM4601 LTM4601

Application Notes

  • LTM4601 DC/DC uModule Thermal Performance &mdash AN110
    PDF, 193 Kb, File published: May 10, 2007
    This application note provides an extensive guideline for the thermal performance of the LTM4601 μModule. The LTM4601 is characterized with and without heatsinking over an extended operating temperature range. De-rating curves are derived with the different heatsinking types, and the equivalent θJA (thermal resistance) is derived. The different θJA parameters are tabulated with reference to the different test conditions.
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  • Powering Complex FPGA-Based Systems Using Highly Integrated DC/DC uModule Regulator Systems &mdash AN119A
    PDF, 512 Kb, File published: Apr 30, 2008
    In a recent discussion with a system designer, the re- quirement for his power supply was to regulate 1.5V and deliver up to 40A of current to a load that consisted of four FPGAs. This is up to 60W of power that must be delivered in a small area with the lowest profile (height) possible to allow a steady flow of air for cooling. The power supply had to be surface mountable and operate at high enough efficiency to minimize heat dissipation. He also demanded the simplest possible solution so his time could be dedicated to the more complex tasks. Aside from precise electrical performance, this solution had to remove the heat generated during DC to DC conversion quickly so that the circuit and the ICs in the vicinity do not over heat.
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  • Powering Complex FPGA-Based Systems Using Highly Integrated DC/DC uModule Regulator Systems &mdash AN119B
    PDF, 290 Kb, File published: Apr 30, 2008
    In part one of this article, we discussed the circuit and electrical performance of a compact and low proп¬Ѓle 48A, 1.5V DC/DC regulator solution for a four-FPGA design. The new approach uses four DC/DC μModule™ regulators in parallel (Figure 1) to increase output current while sharing the current equally among each device. This solution relies on the accurate current sharing of these μModule regulators to prevent hot-spots by dissipating the heat evenly over a compact surface area. Each DC/DC μModule is a complete power supply with on-board inductor, DC/DC controller, MOSFETs, compensation circuitry and input/output bypass capacitors. It occupies only 15mm × 15mm of board area and has a low proп¬Ѓle (height) of only 2.8mm. This low proп¬Ѓle allows air to flow smoothly over the entire circuit. Moreover, this solution casts no thermal shadow on its surrounding components, further assisting in optimizing thermal performance of the entire system.
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Design Notes

  • Simple and Compact 4-Output Point-of-Load DC/DC uModule System &mdash DN411
    PDF, 705 Kb, File published: Mar 21, 2007
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Articles

  • Easy High Density Power: 48A Surface Mount DC/DC Power Supply Uses Four Parallel 12A uModule Regulators &mdash LT Journal
    PDF, 1.1 Mb, File published: Jan 14, 2008
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Model Line

Manufacturer's Classification

  • µModule Solutions > µModule Regulators > µModule Buck Regulators