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首页 > 产品中心 > 电源管理 > DC降压型芯片 > Buck降压型芯片 >CXSD6285双PWM降压控制器和一个内部线性调节器用于DDR存储器和MCH电源解决方案两个同步PWM buck控制ler驱动四个N通道mosfet
CXSD6285双PWM降压控制器和一个内部线性调节器用于DDR存储器和MCH电源解决方案两个同步PWM buck控制ler驱动四个N通道mosfet
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CXSD6285两个同步PWM buck控制单元驱动四个N通道mosfet,用于DDR存储器供电电压(VDDQ)和MCH调节器。内部调节器设计用于在参考电压的一半时跟踪DDR存储器终端调节器(VTT)的源极和反相电流。

CXSD6285双PWM降压控制器和一个内部线性调节器用于DDR存储器和MCH电源解决方案两个同步PWM buck控制ler驱动四个N通道mosfet
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目录7Kz嘉泰姆

1.产品概述                       2.产品特点7Kz嘉泰姆
3.应用范围                       4.下载产品资料PDF文档 7Kz嘉泰姆
5.产品封装图                     6.电路原理图                   7Kz嘉泰姆
7.功能概述                        8.相关产品7Kz嘉泰姆

一,产品概述(General Description)    7Kz嘉泰姆


      The CXSD6285 integrates Dual PWM buck controllers and an internal linear regulator for DDR memory and MCH power solution. The two synchronous PWM buck control-lers drive four N-channel MOSFETs for DDR memory sup-ply voltage (VDDQ) and MCH regulator. The internal regu-lator is designed to track at the half of the reference volt-age with sourcing and sinking current for DDR memory termination regulator (VTT).7Kz嘉泰姆
        The CXSD6285 uses the latched BUF_Cut signal and the POR of the BOOT to comply with ACPI power sequencing specifications. The two PWM regulators also provide POKsignals to indicate that the regulators are good. The de-vice also has the phase shift function between the two PWM controllers. The protection functions of the two PWM controllers include over-current protection, under-voltage protection, and external soft-start function. The VTT regu-lator provides 2A sinking and sourcing current-limit func-tion and also has thermal shutdown protection.7Kz嘉泰姆
        The TSSOP-24P package with a copper pad provides excellent thermal impedance is available.7Kz嘉泰姆
二.产品特点(Features)7Kz嘉泰姆


1.)Provide Synchronous Rectified Buck PWM Controllers for VDDQ and        VMCH7Kz嘉泰姆
2.)Integrated Power FETs with VTT Regulator7Kz嘉泰姆
       Source/Sink up to 2.0A7Kz嘉泰姆
3.)Drive Low Cost N-Channel Power MOSFETs7Kz嘉泰姆
4.)Internal 0.8V Reference Voltage for Adjustable7Kz嘉泰姆
      VDDQ and VMCH7Kz嘉泰姆
5.)Thermal Shutdown7Kz嘉泰姆
6.)VTT Tracks at Half the Reference Voltage7Kz嘉泰姆
7.)Fixed Switching Frequency of 250kHz for VDDQ7Kz嘉泰姆
     and VMCH7Kz嘉泰姆
8.)Over-Current Protection and Under-Voltage7Kz嘉泰姆
      Protection for VDDQ and VMCH7Kz嘉泰姆
9.)Fully Complies with ACPI Power Sequencing7Kz嘉泰姆
      Specifications7Kz嘉泰姆
10.)180 degrees Phase Shift between VDDQ and VMCH7Kz嘉泰姆
11.)Power-OK Function for VDDQ and VMCH7Kz嘉泰姆
12.)Fast Transient Response7Kz嘉泰姆
       Maximum Duty Cycle 90%7Kz嘉泰姆
       High-Bandwidth Error Amplifier7Kz嘉泰姆
13.)Simple Single-Loop Control Design7Kz嘉泰姆
      Voltage Mode PWM Control7Kz嘉泰姆
      External Compensation
14.)External Soft-Start for VDDQ and VMCH7Kz嘉泰姆
15.)Shutdown Function for VDDQ/VTT and VMCH7Kz嘉泰姆
16.)Thermally Enhanced TSSOP-24P Package7Kz嘉泰姆
17.)Lead Free and Green Devices Available (RoHS Compliant)7Kz嘉泰姆
三,应用范围 (Applications)7Kz嘉泰姆


 DDR Memory and MCH Power Supply7Kz嘉泰姆
四.下载产品资料PDF文档 7Kz嘉泰姆


需要详细的PDF规格书请扫一扫微信联系我们,还可以获得免费样品以及技术支持7Kz嘉泰姆

 QQ截图20160419174301.jpg7Kz嘉泰姆

五,产品封装图 (Package)7Kz嘉泰姆


六.电路原理图7Kz嘉泰姆


7Kz嘉泰姆

七,功能概述7Kz嘉泰姆


Output Inductor Selection7Kz嘉泰姆
The inductor value determines the inductor ripple current and affects the load transient response.7Kz嘉泰姆
Higher inductor value reduces the inductor’s ripple current and induces lower output ripple voltage.7Kz嘉泰姆
The ripple current and ripple voltage can be approximated by:where FS is the switching frequency7Kz嘉泰姆
of the regulator.Although increases the inductor value to reduce the ripple current and voltage, there7Kz嘉泰姆
is a tradeoff existing between the inductor’s ripple current and the regulator load tran-sient response time.7Kz嘉泰姆
A smaller inductor will give the regulator a faster load transient response at the expense of higher ripple current.7Kz嘉泰姆
The maximum ripple current occurs at the maximum in-put voltage. A good starting point is to choose7Kz嘉泰姆
the ripple current to be approximately 30% of the maximum output current.Once the inductance value7Kz嘉泰姆
has been chosen, select an inductor that is capable of carrying the required peak cur-rent without going7Kz嘉泰姆
into saturation. In some types of inductors, especially core that is make of ferrite, the ripple current will7Kz嘉泰姆
increase abruptly when it saturates. This will result in a larger output ripple voltage.7Kz嘉泰姆
Output Capacitor Selection7Kz嘉泰姆
Higher Capacitor value and lower ESR reduce the output ripple and the load transient drop. Therefore,7Kz嘉泰姆
select high performance low ESR capacitors are intended for switch-ing regulator applications.7Kz嘉泰姆
In some applications, mul-tiple capacitors have to be parallelled to achieve the de-sired ESR value.7Kz嘉泰姆
A small decoupling capacitor in parallel for bypassing the noise is also recommended, and the7Kz嘉泰姆
voltage rating of the output capacitors also must be considered. If tantalum capacitors are used,7Kz嘉泰姆
make sure they are surge tested by the manufactures. If in doubt, consult the capacitors manufacturer.7Kz嘉泰姆
Input Capacitor Selection7Kz嘉泰姆
The input capacitor is chosen based on the voltage rat-ing and the RMS current rating. For reliable7Kz嘉泰姆
operation,select the capacitor voltage rating to be at least 1.3 times higher than the maximum input voltage.7Kz嘉泰姆
The maximum RMS current rating requirement is approximately IOUT/2,where IOUT is the load current.7Kz嘉泰姆
During power-up, the input capacitors have to handle large amount of surge current.7Kz嘉泰姆
If tantalum capacitors are used, make sure they are surge tested by the manufactures. If in doubt,7Kz嘉泰姆
consult the ca- pacitors manufacturer. For high frequency decoupling, a ceramic capacitor 1μF can be7Kz嘉泰姆
connected between the drain of upper MOSFET and the source of lower MOSFET.7Kz嘉泰姆
MOSFET Selection7Kz嘉泰姆
The selection of the N-channel power MOSFETs are de-termined by the RDS(ON), reverse transfer7Kz嘉泰姆
capacitance(CRSS)and maximum output current requirement. The losses in the MOSFETs have two7Kz嘉泰姆
components: conduction loss and transition loss. For the upper and lower MOSFET, the losses are7Kz嘉泰姆
approximately given by the following equations:7Kz嘉泰姆
MOSFET Selection (Cont.)7Kz嘉泰姆
PUPPER = IOUT 2(1+ TC)(RDS(ON))D + (0.5)(IOUT)(VIN)(tSW)FS7Kz嘉泰姆
PLOWER = IOUT 2(1+ TC)(RDS(ON))(1-D)7Kz嘉泰姆
where IOUT is the load current7Kz嘉泰姆
TC is the temperature dependency of RDS(ON)7Kz嘉泰姆
FS is the switching frequency7Kz嘉泰姆
tSW is the switching interval7Kz嘉泰姆
D is the duty cycle7Kz嘉泰姆
Note that both MOSFETs have conduction losses while the upper MOSFET includes an additional transition7Kz嘉泰姆
loss.The switching internal, tSW, is the function of the reverse transfer capacitance CRSS. The (1+TC) term7Kz嘉泰姆
is to factor in the temperature dependency of the RDS(ON) and can be extracted from the “RDS(ON) vs7Kz嘉泰姆
Temperature” curve of the power MOSFET.7Kz嘉泰姆
Layout Consideration7Kz嘉泰姆
In high power switching regulator, a correct layout is im-portant to ensure proper operation of the regulator. In7Kz嘉泰姆
general, interconnecting impedances should be mini-mized by using short and wide printed circuit traces. Sig-7Kz嘉泰姆
nal and power grounds are to be kept separating and finally combined to use ground plane construction or7Kz嘉泰姆
single point grounding. Figure 14 illustrates the layout,with bold lines indicating high current paths; these traces7Kz嘉泰姆
must be short and wide. Components along the boldlines should be placed close together.7Kz嘉泰姆
Below is a checklist for your layout:7Kz嘉泰姆
·-The metal plate of the bottom of the packages (TSSOP-24P) must be soldered to the PCB and con-nect to7Kz嘉泰姆
the GND plane on the backside through sev-eral thermal vias. More vias is better for heatsink.7Kz嘉泰姆
·-Keep the switching nodes (UGATE, LGATE, and PHASE) away from sensitive small signal nodes7Kz嘉泰姆
since these nodes are fast moving signals. Therefore,keep traces to these nodes as short as possible.7Kz嘉泰姆
· Connet the FB and VTTFB to point of load and the REFSEN should be connected to the point of load of7Kz嘉泰姆
the VDDQ output.7Kz嘉泰姆
· The traces from the gate drivers to the MOSFETs (UG1,LG1, UG2, and LG2) should be short and wide.7Kz嘉泰姆
Decoupling capacitor, compensation component, the resistor dividers, boot capacitors, and SS capacitors7Kz嘉泰姆
should be close to their pins.7Kz嘉泰姆
The input capacitor should be near the drain of the upper MOSFET; the output capacitor should be near7Kz嘉泰姆
the loads.7Kz嘉泰姆
The input capacitor GND should be close to the out-put capacitor GND and the lower MOSFET GND.7Kz嘉泰姆
The drain of the MOSFETs (VIN and phase nodes)7Kz嘉泰姆
should be a large plane for heat sinking.7Kz嘉泰姆

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17Kz嘉泰姆

207Kz嘉泰姆

37Kz嘉泰姆

13.27Kz嘉泰姆

0.87Kz嘉泰姆

5~127Kz嘉泰姆

25007Kz嘉泰姆

CXSD6296A|B|C|D7Kz嘉泰姆

SOP8P7Kz嘉泰姆

VM7Kz嘉泰姆

17Kz嘉泰姆

17Kz嘉泰姆

257Kz嘉泰姆

37Kz嘉泰姆

13.27Kz嘉泰姆

0.6|0.87Kz嘉泰姆

5~127Kz嘉泰姆

12007Kz嘉泰姆

CXSD62977Kz嘉泰姆

TDFN3x3-107Kz嘉泰姆

VM7Kz嘉泰姆

17Kz嘉泰姆

17Kz嘉泰姆

257Kz嘉泰姆

47Kz嘉泰姆

13.27Kz嘉泰姆

0.87Kz嘉泰姆

5~127Kz嘉泰姆

20007Kz嘉泰姆

CXSD62987Kz嘉泰姆

TDFN3x3-107Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

17Kz嘉泰姆

257Kz嘉泰姆

4.57Kz嘉泰姆

257Kz嘉泰姆

0.67Kz嘉泰姆

5~127Kz嘉泰姆

807Kz嘉泰姆

CXSD6299|A7Kz嘉泰姆

SOP-8P7Kz嘉泰姆

VM7Kz嘉泰姆

17Kz嘉泰姆

17Kz嘉泰姆

257Kz嘉泰姆

4.57Kz嘉泰姆

13.27Kz嘉泰姆

0.87Kz嘉泰姆

5~127Kz嘉泰姆

160007Kz嘉泰姆

CXSD621007Kz嘉泰姆

TQFN3x3-107Kz嘉泰姆

VM7Kz嘉泰姆

17Kz嘉泰姆

17Kz嘉泰姆

257Kz嘉泰姆

4.57Kz嘉泰姆

13.27Kz嘉泰姆

0.67Kz嘉泰姆

5~127Kz嘉泰姆

25007Kz嘉泰姆

CXSD62101|L7Kz嘉泰姆

TDFN3x3-107Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

17Kz嘉泰姆

307Kz嘉泰姆

37Kz嘉泰姆

257Kz嘉泰姆

0.87Kz嘉泰姆

5~127Kz嘉泰姆

20007Kz嘉泰姆

CXSD621027Kz嘉泰姆

TQFN3x3-167Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

17Kz嘉泰姆

307Kz嘉泰姆

1.87Kz嘉泰姆

287Kz嘉泰姆

0.67Kz嘉泰姆

57Kz嘉泰姆

6007Kz嘉泰姆

CXSD62102A7Kz嘉泰姆

TQFN 3x3 167Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

17Kz嘉泰姆

307Kz嘉泰姆

1.87Kz嘉泰姆

287Kz嘉泰姆

0.67Kz嘉泰姆

57Kz嘉泰姆

6007Kz嘉泰姆

CXSD621037Kz嘉泰姆

QFN4x4-247Kz嘉泰姆

VM7Kz嘉泰姆

27Kz嘉泰姆

17Kz嘉泰姆

507Kz嘉泰姆

4.57Kz嘉泰姆

13.27Kz嘉泰姆

0.67Kz嘉泰姆

5~127Kz嘉泰姆

50007Kz嘉泰姆

CXSD621047Kz嘉泰姆

TQFN4x4-247Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

27Kz嘉泰姆

157Kz嘉泰姆

67Kz嘉泰姆

257Kz嘉泰姆

27Kz嘉泰姆

N7Kz嘉泰姆

5507Kz嘉泰姆

CXSD621057Kz嘉泰姆

TQFN4x4-247Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

27Kz嘉泰姆

157Kz嘉泰姆

67Kz嘉泰姆

257Kz嘉泰姆

27Kz嘉泰姆

N7Kz嘉泰姆

5507Kz嘉泰姆

CXSD62106|A7Kz嘉泰姆

TQFN4x4-47Kz嘉泰姆

TQFN3x3-207Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

27Kz嘉泰姆

207Kz嘉泰姆

37Kz嘉泰姆

287Kz嘉泰姆

0.757Kz嘉泰姆

57Kz嘉泰姆

8007Kz嘉泰姆

CXSD621077Kz嘉泰姆

TQFN3x3-167Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

17Kz嘉泰姆

207Kz嘉泰姆

1.87Kz嘉泰姆

287Kz嘉泰姆

0.757Kz嘉泰姆

57Kz嘉泰姆

4007Kz嘉泰姆

CXSD621087Kz嘉泰姆

QFN3.5x3.5-147Kz嘉泰姆

TQFN3x3-167Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

17Kz嘉泰姆

207Kz嘉泰姆

1.87Kz嘉泰姆

287Kz嘉泰姆

0.757Kz嘉泰姆

57Kz嘉泰姆

4007Kz嘉泰姆

CXSD621097Kz嘉泰姆

TQFN3x3-167Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

27Kz嘉泰姆

207Kz嘉泰姆

1.87Kz嘉泰姆

287Kz嘉泰姆

0.757Kz嘉泰姆

57Kz嘉泰姆

4007Kz嘉泰姆

CXSD621107Kz嘉泰姆

QFN3x3-207Kz嘉泰姆

TQFN3x3-167Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

27Kz嘉泰姆

207Kz嘉泰姆

37Kz嘉泰姆

287Kz嘉泰姆

1.8|1.5|0.57Kz嘉泰姆

57Kz嘉泰姆

7407Kz嘉泰姆

CXSD621117Kz嘉泰姆

TQFN4x4-247Kz嘉泰姆

|QFN3x3-207Kz嘉泰姆

CM7Kz嘉泰姆

17Kz嘉泰姆

27Kz嘉泰姆

157Kz嘉泰姆

57Kz嘉泰姆

287Kz嘉泰姆

0.57Kz嘉泰姆

N7Kz嘉泰姆

30007Kz嘉泰姆

CXSD621127Kz嘉泰姆

TDFN3x3-107Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

17Kz嘉泰姆

207Kz嘉泰姆

1.87Kz嘉泰姆

287Kz嘉泰姆

0.57Kz嘉泰姆

57Kz嘉泰姆

2507Kz嘉泰姆

CXSD62113|C7Kz嘉泰姆

TQFN3x3-207Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

27Kz嘉泰姆

157Kz嘉泰姆

67Kz嘉泰姆

257Kz嘉泰姆

27Kz嘉泰姆

N7Kz嘉泰姆

5507Kz嘉泰姆

CXSD62113E7Kz嘉泰姆

TQFN 3x3 207Kz嘉泰姆

COT7Kz嘉泰姆

27Kz嘉泰姆

27Kz嘉泰姆

117Kz嘉泰姆

67Kz嘉泰姆

257Kz嘉泰姆

27Kz嘉泰姆

N7Kz嘉泰姆

5507Kz嘉泰姆

CXSD621147Kz嘉泰姆

TQFN3x3-207Kz嘉泰姆

COT7Kz嘉泰姆

27Kz嘉泰姆

27Kz嘉泰姆

117Kz嘉泰姆

5.57Kz嘉泰姆

257Kz嘉泰姆

27Kz嘉泰姆

N7Kz嘉泰姆

2807Kz嘉泰姆

CXSD621157Kz嘉泰姆

QFN4x4-247Kz嘉泰姆

VM7Kz嘉泰姆

27Kz嘉泰姆

17Kz嘉泰姆

607Kz嘉泰姆

3.17Kz嘉泰姆

13.27Kz嘉泰姆

0.857Kz嘉泰姆

127Kz嘉泰姆

50007Kz嘉泰姆

CXSD62116A|B|C7Kz嘉泰姆

SOP-8P7Kz嘉泰姆

VM7Kz嘉泰姆

17Kz嘉泰姆

17Kz嘉泰姆

207Kz嘉泰姆

2.97Kz嘉泰姆

13.27Kz嘉泰姆

0.87Kz嘉泰姆

127Kz嘉泰姆

160007Kz嘉泰姆

CXSD621177Kz嘉泰姆

SOP-207Kz嘉泰姆

VM7Kz嘉泰姆

27Kz嘉泰姆

27Kz嘉泰姆

307Kz嘉泰姆

107Kz嘉泰姆

13.27Kz嘉泰姆

17Kz嘉泰姆

127Kz嘉泰姆

50007Kz嘉泰姆

CXSD621187Kz嘉泰姆

TDFN3x3-107Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

17Kz嘉泰姆

257Kz嘉泰姆

1.87Kz嘉泰姆

287Kz嘉泰姆

0.77Kz嘉泰姆

57Kz嘉泰姆

2507Kz嘉泰姆

CXSD621197Kz嘉泰姆

TQFN3x3-207Kz嘉泰姆

COT7Kz嘉泰姆

27Kz嘉泰姆

17Kz嘉泰姆

407Kz嘉泰姆

1.87Kz嘉泰姆

257Kz嘉泰姆

REFIN Setting7Kz嘉泰姆

57Kz嘉泰姆

7007Kz嘉泰姆

CXSD621207Kz嘉泰姆

QFN 3x3 207Kz嘉泰姆

TQFN 3x3 167Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

27Kz嘉泰姆

207Kz嘉泰姆

37Kz嘉泰姆

287Kz嘉泰姆

1.8|1.5 1.35|1.2 0.57Kz嘉泰姆

57Kz嘉泰姆

8007Kz嘉泰姆

CXSD62121A7Kz嘉泰姆

TQFN3x3 207Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

27Kz嘉泰姆

157Kz嘉泰姆

37Kz嘉泰姆

287Kz嘉泰姆

0.757Kz嘉泰姆

57Kz嘉泰姆

2207Kz嘉泰姆

CXSD62121B7Kz嘉泰姆

TQFN3x3 207Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

27Kz嘉泰姆

157Kz嘉泰姆

37Kz嘉泰姆

287Kz嘉泰姆

0.757Kz嘉泰姆

57Kz嘉泰姆

2207Kz嘉泰姆

CXSD621217Kz嘉泰姆

TQFN3x3-207Kz嘉泰姆

COT7Kz嘉泰姆

17Kz嘉泰姆

27Kz嘉泰姆

207Kz嘉泰姆

37Kz嘉泰姆

287Kz嘉泰姆

0.757Kz嘉泰姆

57Kz嘉泰姆

1807Kz嘉泰姆

 7Kz嘉泰姆

 7Kz嘉泰姆

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